Animal BioInvasion

Mongoose. Brought to kill rats in sugar plantations in Puerto Rico and Hawaii in the 1800s.  Now they’re destroying native birds, amphibians, and reptiles that would have been beneficial for pest control.  12 species of reptiles and amphibians have been driven extinct by mongooses, which also carry rabies and leptospirosis.

Rats.  The United States has over a billion rats (mainly introduced Rattus rattus a.k.a European, black, or tree rat) and ratus norvegicus (Norway or brown rat).  Poultry and other farms have about 1  billion rats, and urban and suburban areas have about 1 rat per human.  Rats cause fires by gnawing on electric wires, polluting food, and carrying diseases.

Cats.  About 200 million birds are killed a year by America’s 63 million domestic cats and 30 million feral cats.

Dogs.  They bite around 4.7 million people a year, sending 800,000 to emergency rooms. Wild dogs in Florida, Texas, and other states harm far more livestock than wolves or coyotes, about $10 million in damage per year.

English sparrow.  Eats crops, displaces native birds, carries 29 diseases that affect humans and domestic animals, plus the canker worms that invade gardens.

Jan 26, 1999.  Alien Animals, Plants And Microbes Cost U.S. $123 Billion A Year, Cornell Ecologists Report.  Science Daily

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Ocean BioInvasion

 January 2016. Potential invasive species identified in S. Gulf of Mexico.

November 2015. Marine invasive species benefiting from rising carbon dioxide levels Territories changing due to ocean acidification.

March 2013. Invasive species: Understanding the threat before it’s too late.

7 Sep 2011. Giant Crabs invade Antarctica. New Scientist (original source Proceedings of the Royal Society)

More than a million large 3-foot wide crabs have invaded deep Antarctic waters after the water warmed up enough for them to survive.  They’ve wiped out the local wildlife (sea urchins, sea lilies, sea cucumbers, starfish and brittle stars ) and now threaten to ruin ecosystems that have evolved over 14 million years.   The only way to make them go away is to stop global warming, says Craig Smith of the University of Hawaii at Manoa, who discovered the scarlet invaders.

Molnar, Jennifer, et. al. 2008. Assessing the global threat of invasive species to marine biodiversity  Frontiers in Ecology 6(9): 485-492.

Invasive species have transformed marine habitats around the world. The most harmful of these invaders displace native species, change community structure and food webs, and alter fundamental processes, such as nutrient cycling and sedimentation. Alien invasives have damaged economies by diminishing fisheries, fouling ships’ hulls, and clogging intake pipes. Some can even directly impact human health by causing disease

6 Jun 2012. Dock found in Oregon is debris from Japan.

A 165 ton dock (70-feet-long, 19 feet wide, 7 fet high) landed on Agate beach in Oregon near Newport. It originally came from a fishing port 5,000 miles away in northern Japan, torn loose by last year’s tsunami.

A starfish native to Japan was among the marine life still clinging to the structure. John Chapman, a research scientist at Oregon State University’s Hatfield Marine Science Center, said hundreds of millions of other organisms also hitchhiked across the ocean on the dock — some of which are invasive species never before seen on this part of the West Coast. Among the organisms are a species of tiny crab that has run wild on the East Coast but not on the West, and a kind of algae that has hit southern California but not Oregon.

“This is a very clear threat,” he said. “It’s exactly like saying you threw a bowling ball into a China shop. It’s going to break something.”

Sen. Ron Wyden, D-Ore., called on the National Oceanic and Atmospheric Administration to redouble its efforts to track the debris, saying something as big as the dock could pose a danger to ships at sea.

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How and Why Corporate Interests Attack Science. A Detailed Account of the Attack on the Hockey Stick graph

A Book review of:

Bradley, Raymond. S.  2011.  Global Warming and Political Intimidation.  How Politicians Cracked Down on Scientists as the Earth Heated up.  University of Massachusetts Press.

I would read Oreskes’ “Merchants of Doubt. How a Handful of Scientists Obscured the Truth on Issues from Tobacco Smoke to Global Warming” first for an overview of how commercial interests manipulate the political process to prevent regulation and receive outrageous amounts of public money.

Then I’d read this book to learn the specifics of the attack.  This book also has an easy-to-understand explanation of the research that led them to their conclusions (about the hockey stick graph, made famous by Al Gore’s movie “An Inconvenient Truth”), and why the attacks of other scientists were bogus and not published by good peer-reviewed journals.

The details of the right-wing attack on science in this book make you really feel the pain and suffering inflicted on scientists like Bradley.  Fighting the attack takes up so much of their time they can’t continue to do research, no doubt another reason to go after them.

The main reason the “hockey stick” teams research was attacked was to reduce the credibility of the 2007 IPCC report.

It’s hard to know whether to laugh or cry when politicians bought by special interests, such as Senator Inhofe, invite a science fiction writer to testify about climate change.  Michal Crichton has a background in medicine, and as Bradley puts it “I really don’t follow the logic.  If I had a medical problem, I wouldn’t want to be treated by a climatologist.  So what possesses a doctor (an M.D., that is) to feel qualified to sound off about climate science is beyond me.  As a fully paid-up climatologist of many years’ standing, I know there is an immense amount about climate science that I don’t know.  The idea of weighing in on an entirely different field strikes me as presumptuous at best and foolish at worst”.

Yet Bradley falls prey to the same problem when he hopes that green technology will save us from burning fossil fuels – this simply isn’t a solution.  The best books to understand why fossil fuels are not replaceable are Hayden’s “Solar Fraud. Why Solar Energy Won’t Run the World” and Trainer’s “Renewable Energy Cannot Sustain a Consumer Society”.

Some of the scary rate-of-change statistics in the book:

  • Climate hasn’t changed this much in at least the last 850,000 years
  • When we burn fossil fuels like coal and oil, we’re releasing carbon dioxide thousands of times faster than it took to form coal and oil deposits.
  • Carbon dioxide levels have risen 40% in just the past 250 years
  • Never have greenhouse gases tripled within a few centuries, and we’re destroying the plants that could help to sequester CO2.

One of the most important concepts to understand is that it’s the rate of change that’s especially frightening about climate change.  If change is slow, then plants and animals can gradually move elsewhere and develop new adaptations to cope with the changes. Bradley has a good analogy of why the rate of change is so important. “If you trip and fall down, you won’t hurt yourself too badly; your system is capable of handling the speed at which you hit the ground.  But if you fall from a ten-story building, there’s likely to be a different result.  Your system is not adapted to deal with the much faster rate of descent in the second case.  In the same way, all systems have evolved to cope with the normal variability in existing environmental conditions.”

Bradley asks whether this rate of change really matters.  Planet earth will survive, he says, but it may become uninhabitable.  Not just from climate change, but from how much humans have altered the earth’s surface through agriculture, roads, vegetation destruction, damaging and diverting water, etc. — which will make it even harder for life to adapt to climate change.

The book is full of easy to understand explanations, which the public desperately needs, not all scientists are good at conveying what they do.  For example, here’s Bradley’s explanation of the difference between weather and climate:

“The energy that the earth receives from the sun is not distributed equally.  Because the earth is a sphere that rotates on its axis as it revolves around the sun, more energy is received near the Equator and in the tropics than at higher latitudes, and more is received (in each hemisphere) during summer months than in winter months.  These factors are what cause the atmosphere and the oceans to circulate, redistributing the energy around the globe.  Continents and mountain ranges get in the way, forcing ocean currents to carry warm (or cold) water to places where they might not otherwise go, and causing the atmosphere to swerve far to the north or south as it sweeps across the globe.  The immediate consequences of these processes are what we think of as weather—the daily and seasonal variations in temperature, rainfall, humidity, cloudiness, and so on that characterize each region.  But over time, the same kinds of weather events tend to recur within each region—of course, a bit mixed up from one year to the next.  This general repetition, season to season, year to year, gives each place its distinct “climate”.

In the future, temperatures will rise over the entire planet. Rainfall is harder to predict, but it will be altered too.  In general, high-latitude regions will get wetter, and subtropical and lower latitude will become drier – regions that now produce enormous amounts of food.

[my comment: I really don’t understand how anyone could deny that humans are causing carbon dioxide to increase.  Coal and oil are ancient plants full of carbon dioxide laid down 330 million years ago.  Billions of people are burning fossil fuels, releasing their carbon dioxide (and other pollutants).  Why would that not have an effect?  Alice Friedemann, energyskeptic]

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Termites, air pollution, and ozone depletion

Excerpts from the book below.  Ozone depletion is also one of the 9 boundaries we must not cross.

Klein, Hilary Dole, and Adrian M. Wenner 2001. Tiny Game Hunting: Environmentally Healthy Ways to Trap and Kill the Pests in Your House and Garden,  University of California Press.

If you suspect a termite colony is in the ground near your house (wood in the woodpile, tree stumps, or fence posts show signs of being eaten), get out a shovel and start digging. You can’t totally expose a very large colony, but you can create access to it for ants and other termite enemies.

People commonly buy and sell at least one or two homes during their lifetime, and renters move even more frequently; but little information is kept on the pesticide-use history of a dwelling. How are you to know, when you move into a house, that it has been treated with gallons of chlordane, not once, but over and over again?

When a house is tented and fumigated, methyl bromide or sulfuryl fluoride (Vikane) is pumped into it. These are among the most toxic and hazardous pesticides used today, a dangerous source of pesticidal air pollution that may result in unsafe exposures for people living nearby. Moreover, a United Nations scientific panel estimated that methyl bromide is responsible for from 5 to 10 percent of ozone depletion worldwide. In 1995, almost 600,000 pounds of this chemical were injected into thousands of California homes and businesses. Furthermore, according to Californians for Pesticide Reform, methyl bromide levels outside homes under fumigation may exceed the California safety standard sevenfold. And methyl bromide can be detected inside other closed houses up to 100 feet away from a fumigated structure. Passersby beware! Hazardous vapors drifting through empty pipes into neighboring houses have killed a number of people.

Used much more frequently than methyl bromide, Vikane is an extremely toxic nerve poison. Researchers have found that it can be absorbed by many household materials and released for up to forty days after fumigation.

Fumigation only kills the termites in the house and does not affect underground nests. Houses can be reinfested immediately afterward, although evidence that a colony exists then may take a few years to show up. And often after pesticides are used, people do not attend to the important tasks of monitoring and detection.

People twenty years ago might be forgiven for using hazardous substances to “save” their homes. But today a variety of nontoxic treatments for termites are available. Call around to locate exterminators who use them and give them your business. The more we demand safe treatments that will not poison our water and air, the more operators will begin to use those treatments.

Traditionally, the treatment for subterranean termites has been to inject insecticides into the soil around and beneath houses. Chlorinated hydrocarbons such as chlordane were used routinely for termites (and ants) in millions of homes. A known carcinogen, chlordane remains active for twenty-five years. It is no longer on the market, but its use (and overuse) may be one of the twentieth century’s great pesticide disasters.Pages 94-95

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Air Pollution effects on conifers in California

Below is an excerpt on how air pollution in California affects nearby forests from the book:

Johnston, Verna R.  1994. California Forests and Woodlands: A Natural History.  University of California Press.

It was in the Mixed Conifer Forests of the San Bernardino Mountains east of Los Angeles that air pollution damage to Pacific Ponderosa Pines first became recognized in the early 1960s. For nearly a decade a mysterious blight known as “Disease X” had been turning the needles of mature Ponderosas a mottled yellow before destroying the trees. No one guessed, at that time, that the smog from the Los Angeles Basin 60 miles away could be the killer.

As trees died by the thousands, Paul Miller and colleagues traced the lethal agent to its source. The brown smog that blankets Los Angeles comes largely from millions of automobiles. When hydrocarbons and nitrogen oxides from car exhausts combine in sunshine, one of their major products is ozone (O3 ). An invisible, eye-stinging, caustic gas, ozone can crack rubber, deteriorate fabrics, scar lungs, and cause coughing, shortness of breath, pain, and fatigue. And, it kills trees!

Ozone, along with all the other air pollutants generated in Los Angeles, ordinarily remains trapped there during much of the day by inversion layers of warm air over the mountains rimming the basin. When afternoon offshore breezes blow the smog-laden air upslope into the mountains, ridges in direct line with the air currents suffer devastating tree losses.

Ozone acts quickly. Ponderosa Pines usually keep their needles 3 to 4 years. Ozone-struck trees shed all but the current crop, leaving a sparse, stripped tree. The remaining needles soon show yellow mottling as ozone destroys the chlorophyll. As the needles fall, the root system deteriorates and resin flow in the trunks slows down, opening the way for bark beetles.

Fortunately, not all kinds of trees succumb in the same degree and, even among the most sensitive Ponderosa and Jeffrey Pines, some specimens show an inborn resistance. Sugar Pine, luckily, seems relatively immune. But the list of vulnerable conifers grows with each decade of bad air exposure. And this disaster is not confined to southern California.

Ozone damage, now known as ozone mottle, became visible in the southern Sierra in the mid-1970s and continues to increase ominously. ON countless days a brown layer of pollution hangs over the San Joaquin Valley west of Sequoia/Kings Canyon National Parks. It shows up plainly from Moro Rock. Afternoon upslope breezes blow the ravaging pollutants into the 5,000 to 7,000-foot levels (1,500 to 2,100 m) of the parks, where ozone works ruinous havoc on the pines and oaks and on some Giant Sequoia seedlings. Sequoia National Park has recorded the highest cumulative levels of ozone over a one-day period for all of the national parks. Levels in Sequoia regularly climb higher than those of Los Angeles.

Yosemite National Park, farther north, suffered a fivefold increase in ozone damage between 1985 and 1990. Thirty percent of its Jeffrey and Ponderosa Pines show yellow needle mottling, and no area in Yosemite’s mixed conifer belt stands free from ozone’s relentless scourge. Adjacent national forests display steadily growing numbers of Ponderosa and Jeffrey Pines with the thinning crowns and mottled needles that are ozone’s trademark.

California’s Great Central Valley sits in the midst of an even larger basin than Los Angeles, bordered by mountains and hemmed in by the same inversion layer that traps smog beneath. As populations of valley cities boom, more and more of their polluted air follows its daily, deadly flow uphill to the Mixed Conifer Forests of the western Sierra Nevada.

The most diverse coniferous forests on this earth, still very beautiful, face all the natural ecological challenges of forest life-fire, drought, insects, fungi, winds-with adaptations built in over centuries. Their genetic resistance to poisonous air is now being sorely tested. In both the short and the long run, air pollution of human derivation will require a solution for humans and trees, for both are dependent on the same air for survival.  Pages 109-110

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Air Pollution in “Deceit and Denial: The Deadly Politics of Industrial Pollution”

The fight against industrial chemicals is far from won. Chemical lobbyists spend tens of millions of dollars convincing legislators to not pass legislation that would protect you.  For example, check out the Green Policy Institute at the University of California, Berkeley. Learn how to reduce chemical hazards in your own home, and don’t re-elect politicians in bed with the chemical industry.

Below are a few of the air pollution paragraphs from this excellent book:

Markowitz, Gerald, and David Rosner. 2002. Deceit and Denial: The Deadly Politics of Industrial Pollution. University of California Press.

It is a tenet of democracy that citizens should have full access to information so they can make informed decisions about policies that affect their lives. In the case of industrial toxins, such information has been regularly denied to workers and the general public. As a result, factory workers have been assailed by noxious fumes and dangerous chemicals even while beseeching industry for information and protection. Over time these toxins have been vented into the air, spilled into waterways, and dumped onto the land, both legally and illegally, making industrial pollution an issue of widespread public concern. But the general public, like workers before them, has not been given sufficient information to understand the danger that exists all around them. It has taken catastrophes like Love Canal in Niagara Falls, New York, Times Beach, Missouri, and Bhopal, India, to bring home to people the danger industry poses to their lives and the environment and the public’s need to have free access to information about toxic substances in the environment. Despite all this, industry has continued to hide and obfuscate information it had about the toxic characteristics of some of its products and, in the wake of the attack on the World Trade Center, the Bush administration has further undermined the Freedom of Information Act. As a result, people have been denied information about the toxins they have been ingesting and inhaling every day. page 3

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But the crisis at Standard Oil’s plant in Bayway, New Jersey, was different. Very quickly it became clear that more was at stake than the lives of a few workers. Public health officials and the public who read the daily accounts of dying workers understood that the gas that was killing the workers also could kill or harm ordinary citizens breathing air polluted by automobiles or who were pumping gas at the rapidly growing network of filling stations across the country. The horrendous experiences with poison gas in World War I less than a decade earlier had heightened public concern over the new substance, also called a “gas,” that was making headlines in many major cities. With little distinction between the organic lead that was poisoning workers in the Standard Oil plant and the inorganic lead that would be spewing from the exhaust pipes of cars, newspapers fanned the fears that a toxic gas would soon be inhaled by millions of Americans. Industry leaders understood that if they could not contain the developing crisis, millions upon millions of dollars would be at risk. The questions: how to contain it, and what would containment mean?

On the one hand, the gasoline and lead industry had to develop a program to prevent dramatic outbreaks of “loony gas poisoning” within the plant if it were to quell public outrage generated by lurid headlines above photographs of sickened workers being taken to hospitals in straitjackets. On the other hand, industry had to convince the public that, far from being a generalized threat to their health, poisonings by industrial products could be solved, or at least confined behind the walls of a factory. Occupational health issues were exactly that: problems borne by the workforce but no threat to the public at large. This was part of a broader effort on the part of major corporations to improve their public image and undercut the popular suspicion that they were “soulless” entities that were “greedy and ruthless in their pursuit of profits page 22

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In the face of overwhelming evidence of lead’s dangers, the lead industry was reluctantly willing by the early 1970s to sacrifice lead in paint. Besides, lead paint was accounting for a smaller and smaller share of the lead market. This was not the case with lead in gasoline, and what had once been a limited crisis over workers and children would emerge as a concern about the health of the entire population. In the 19603, lead researchers began to absorb the implications of the work of such writers as Rachel Carson, Barry Commoner, and Paul Ehrlich regarding the fragility of the environment and the dangers posed to humans through the introduction of man-made pesticides and other toxins. As growing cities like Los Angeles, Detroit, and Denver based their transportation systems overwhelmingly on the automobile, the dangers from smog (a term popularized in the 19403 to denote a combination of smoke and fog) brought to public attention the impact of leaded gasoline on air pollution and on the general population.

But even through the 1950s the Lead Industries Association (LIA) insisted that its product presented no problem to the public health. As environmental air pollution gained the attention of state and local governments, the LIA held that attacks on lead were absurd. One paper touted by the LIA claimed, “No theory as to the causation of lead poisoning is too crazy to be brought forward. … A group in Los Angeles had put forward the claim that lead from the exhausts of motor vehicles constituted a menace to the public health.” The LIA mailed out nearly 1,000 copies of the speech because they found it “a most useful means of disseminating sound common sense on this subject.”

Given that in the 1960s the press and the public health community were beginning to pay greater attention to chronic disease caused by long-term exposure to environmental toxins, however, it is not surprising thatattention was drawn to the automobile. The burning of leaded gasoline was quickly pinpointed as a major contributor to smog and air pollution in major cities. The gas-guzzling engine that became a hallmark of the 19505 eight-cylinder tail-finned family car depended upon high-octane gas containing ever-increasing amounts of tetraethyl lead. As of the 19203 the U.S. Public Health Service had capped the tetraethyl lead content of gasoline at 3 cubic centimeters per gallon. But in 1958, under pressure from the automobile industry, that level was raised to 5 cc/gallon. This increase, however, was still below what the Ethyl Corporation and automobile industries’ leaders had requested, in part because Surgeon General Leroy Burney and other officials noted that no good environmental lead pollution study had been conducted since the first tetraethyl lead crisis in the 19203 and that without good evidence it was difficult to make sound public policy. pages 108-109

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DARKNESS AT NOON After World War II the chemical industry proclaimed for itself a special role in America’s newfound affluence. DuPont announced that the American century was made possible by “Better Things for Better Living… through Chemistry.” For over fifteen years, despite particular environmental crises and increased scientific concern about pollution, Americans were fairly hypnotized by a parade of technological advances and remained largely unaware of the ecological and health costs of progress. Most eagerly incorporated the products of the chemical industry into their lives, never thinking that the synthetic chemicals in these products could possibly pose a danger.

Industry understood during the 1950s that the anxiety most Americans felt about the threat of nuclear war and the reality of fallout from atomic testing had the potential to translate into a fear about the toxicity of chemicals. Americans listened to Civil Defense advertising, watched the building of fallout shelters, and participated in air raid drills and “duck and cover” exercises in schools. The vaguely understood effect of unseen radiation on human health raised the specter of unknown dangers posed by human manipulation of the natural environment. The testing of atomic bombs in the Nevada desert destroyed the immediate environment and threatened children-both immediately downwind and thousands of miles away-as dangerous levels of strontium 90 were found in milk sold in upstate New York supermarkets. At any moment these general fears might cause people to wonder about the possible toxicity of chemicals.

Americans remained largely indifferent to pollution from the chemical industry until a tragedy occurred in 1948 in Donora, Pennsylvania. This small factory town near Pittsburgh was enveloped in “a poisonous mix of sulfur dioxide, carbon monoxide and metal dust… from the smokestacks from the local zinc smelter where most of the town worked” as an air inversion turned the street dark at noon. “Twenty residents died and half the town’s population-7,000 people-were hospitalized over the next five days with difficulty breathing.” Donora was home to a number of smelters and steel mills, including the American Steel and Wire Company’s zinc works. For five days, a cloud of toxins sat over the town. It was estimated that the air contained between 1,500 and 5,500 micrograms per cubic meter of sulfur dioxide emissions, whereas today’s Clean Air Act mandates 80 mg/m3 as a maximum average. For a brief moment, Americans were shocked and forced to confront the dangers of air pollution.

The following year, undoubtedly in reaction to Donora, the Manufacturing Chemists’ Association (MCA) formed the Air Pollution Abatement Committee. (The MCA, the major trade association for the chemical industry, was established in 1872; by the second half of the twentieth century it represented one hundred seventy-four U.S. companies, responsible for “more than 90 percent of the production capacity of basic industrial chemicals” in this country.) Dudley A. Irwin, representing the Aluminum Company of America, argued in January 1950 that “the repercussions of the Gauley Tunnel episode on silicosis [America’s worst occupational health disaster, which occurred in the early 19303] probably will be dwarfed by the effects of Donora on air pollution. The Donora incident,” he continued,  “has not only made the public air pollution conscious and unduly apprehensive, but also it has advanced opinion with regard to the imposition of restrictive measures by many years.” The implications of this for the legislative arena were clear: “The politicians have not been slow to sense this changed attitude of the public.”[5] But, as Modern Industry magazine put it, “smart plants are cleaning up their exhaust gases right now-before laws or lawsuits start to pinch.” Decrying the lack of information, Irwin reviewed what was known and not known about the effects of industrial air pollution.

While the industry had argued throughout the twentieth century that if you could protect the worker, the public was safe, Irwin wasn’t so sure. Industrial workers “are usually healthy individuals, while the general population includes those who are infirm or chronically ill.” Furthermore, in the factory, workers were “usually exposed to a single contaminant while city air is a mixture of many contaminants, some of which may act synergistically.” Finally, workers were only exposed to toxins “on a part time basis in contrast to the full-time exposure of ordinary citizens.” Even so, Irwin was unwilling to acknowledge that “ordinary air pollution has any significant adverse effect on the health of the general population.”

The MCA developed a program that incorporated its view of nature and the environment as another resource at the disposal of industry. In its “Basic Principles of Legislation,” the association laid out its vision in 1950: “the atmosphere should be regarded as a useful natural resource.” According to the MCA, nature “should be utilizable for dispersion of wastes within its capacity to do so without harm to the surroundings.” Rather than envisioning the atmosphere as a national resource to be protected for the people as a whole, it was simply considered a local resource. Therefore, “air pollution is a local problem,” and the state should only interfere “to enable a particular locality to take action.” This reasoning was part of the industry’s efforts to prepare for fights over threats to its sovereignty. Of particular concern was the U.S. southwest, where the chemical industry had experienced “unprecedented growth.”[9] Similarly, the rapid growth of Los Angeles and its dependence on the automobile raised new worries about smog and its long-term effects on American health and therefore new worries for industry. Smog, in the words of one trade journal, “ceased to be a joke to industrialists.”

Throughout the 19503 the MCA developed a keen awareness of the air pollution issue, closely monitoring national and state legislation. When New Jersey considered a bill to put the state Air Pollution Control Commission in the Department of Health, the MCA’s Air Pollution Abatement Committee sought to have the legislation altered to place it in the Department of Law and Public Safety. Understanding that health was a potent political issue, the MCA sought to depict air pollution as “a nuisance problem and not a health problem.”

When the MCA became concerned about federal air pollution legislation, it met with the Public Health Service “to impress upon the officials that we feel control of air pollution is largely a local matter.” If the purpose of legislation was the “collection of information,” then the MCA would have no objection, but there was to be no federal regulation.  Arguing that there was “no basis for the fear that health is endangered by air pollution” and that air pollution was only “a nuisance,” the MCA believed that the industry should begin a determined program as an “investment in good will.”

In 1956 the MCA participated in a federal-state study of air pollution in Louisville, Kentucky. The industry needed to be on top of information about pollution if it were going to be prepared to counter challenges to its control. Monitoring the study for the MCA were technical personnel from the B. F. Goodrich Chemical Company, the same plant that would, in less than two decades, become the site of the first cancer deaths linked to the plastics industry. It was clear to the study organizers that emissions from the plant were escaping into the general population; the study was designed to identify the frequency and types of emissions that were escaping. As part of the project, “several school children in Louisville’s West End,” a predominantly poor, African American community, were given “sniff-kits,” which were “small bottled samples of many materials used in Rubbertown processes.” The children were taught how to use the kits to identify odors they noticed in the air.

The MCAs state affiliates were less attentive to the looming issues of environmental and air pollution than the national organization. When the MCA approached the Louisiana Chemical Association (LCA), whose state was emerging as a center of the petrochemical industry, about holding a workshop session on air pollution abatement, the LCA declined: “they felt no pressing need for technical assistance on air pollution problems at present.” Even the Air Pollution Abatement Committee believed that such attitudes were “all too typical of the ‘let sleeping dogs lie’ philosophy, likely to lead to frantic ‘too little and too late’ efforts when the pressure for action mounts.”

In 1960, as the MCAs Medical Advisory Committee considered what kind of public face to present, it was clear that its members understood that the field of environmental health had come to encompass both the  environment of the factory as well as the outside world, into which companies were pouring pollutants. Pollution, particularly smokestack emissions and groundwater contamination, were real problems that industry was “doing an improved job” of addressing. The industry’s dilemma was that emphasizing such claims would simply call attention to what had not been done to protect the environment in the past.

Monsanto’s representative, Dr. R. Emmet Kelly, said, “If we claim we are keeping pollution down to low enough levels, we will be asked how we know such levels are low enough.” Unfortunately, he candidly admitted, “there is bound to be pollution.” H. H. Golz, American Cyanamid’s representative, agreed that “it is difficult to prove that certain levels of pollution are not harmful to people. Absence of evidence of harm was not acceptable” in the contemporary social climate. The Enjay Chemical Company’s representative pointed out that “so long as people die from unknown causes, pollution will be blamed.” One way of proving that industry acted responsibly outside the plant, according to Union Carbide’s representative, was to “show what a good job we are doing in industry to prevent the exposure of workers” inside the factory. But this, in turn, would pose other dilemmas. As DuPont’s spokesman noted, critics would “tell us we protect our workers by pumping the pollutants out into the atmosphere and thereby exposing the general public.” Golz worried that any statements made by General J. E. Hull, the MCA’s president, could be used as an excuse to increase government regulation of the chemical industry and that any admission of responsibility for “a public health problem” should be accompanied by a “go-slow policy by government.”  Pages 140-144

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The American Petroleum Institute (API), the trade association of the portion of the chemical industry that was primarily concerned with petroleum refining, directly addressed the growing fear that the industry’s air pollution was linked to serious diseases. Seeking a way to reconceptualize the health issue as one of annoyance and nuisance, John C. Ruddock, a former lead researcher and the chair of the API’s Sub Committee on Atmospheric Pollutants, argued repeatedly that with the exception of Donora, London, and Meuse, Belgium (where air inversions resulted in many deaths), no one had been able to prove “aggravation of such diseases as asthma, tuberculosis, bronchitis, etc., nor does air pollution particularly affect the aged or very young.” He agreed that air pollution should be reduced. And he was “sympathetic with all those who do not like ‘smog.’ As true Americans, we do not like our rights infringed upon, whether it is the inability to see as far as we desire, or whether it is the discomfort and eye-smarting that occurs with air pollution.” Certainly, there were many “poisonous and noxious fumes” in polluted air. But, they were dangerous only when they exceeded “a certain density and are either inspired or ingested.” The API members assured themselves as well as the government that whatever the claims about the effects of air pollution, “we have found no single case, nor have we found any pathological effect attributable to atmospheric pollutants per se.” page 145

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EVERY VENTURE INVOLVES SOME RISK

In early 1962, coinciding with the impending publication of Rachel Carson’s Silent Spring, the MCA’s Public Relations Advisory Committee expressed a sense of “urgency of the situation confronting us.” There was a “steadily intensifying assault on the right of business management to manage.” While this assault came in part from organized labor, management believed that the more general impetus came from the federal government, which was pursuing “this line because it is the public’s desire that it do so.” The committee recommended a campaign to “educate,” “inform” and “persuade” the American public about what industry was doing for them. They believed that without such a propaganda campaign government would adopt policies that would “result in the constriction and ultimate strangulation of the economic and social systems under which our free institutions have survived and prospered.” They worried that “once the abyss [of government interference] has been reached” it would be too late to change direction.

The MCA introduced into its argument the issue of acceptable risk. “Whether public health officials will admit it or not,” Dr. E. O. Colwell of the Aluminum Company of America told the Air Pollution Abatement Committee, “there is a place for the term ‘calculated risk’ in this human health business.” To the question “What price were we willing to pay for absolutely clean air?” he answered that it was both impractical and unnecessary “to make the air so clean that the most sensitive individuals will be comfortable if such is not economically sound.” He argued that “the public we must satisfy would better risk a few cases of bronchitis or even emphysema than to risk mental and physical ills that would accompany the economic failure of an industry, a community, or a country.” For the industry, as well as Colwell personally, public health could not be the paramount concern of the industry. The economic interests of the chemical industry were synonymous with the interests of the country.[21] The next year industry was pleased that the Clean Air Act encouraged states to initiate air pollution controls, permitting the federal government to act only at the state’s request. Environmental historian Hal Rothman suggests that a “lackluster enforcement record followed,” with “only eleven abatement cases filed between 1965 and 1970.”

Rachel Carson’s Silent Spring, published in September 1962, sounded a loud alarm over the chemical industry. Carson’s biographer, Linda Lear, has written that industry and others recognized Silent Spring as “a fundamental social critique of a gospel of technological progress.” Some quarters were so threatened by Carson’s book that they felt the need to attack her personally. Ezra Taft Benson, the secretary of agriculture in the Eisenhower administration and later a leading elder of the Mormon Church, is credited with barbed remarks about Carson. He asked “why a spinster with no children was so concerned about genetics,” suggesting that it was because she was “probably a communist.” But it was the National Agricultural Chemicals Association, the trade association for pesticide manufacturers, and the MCA that led the attack on Carson and her writings, “sending out a steady stream of brochures and bulletins denouncing things that Carson had never said and circulating ‘fact kits’ to members.”

Almost immediately, the MCA began organizing to get a firmer hold on the broad issue of environmental pollution. Recognizing that an attack on Carson was not sufficient to regain public confidence, the board of directors voted to join with the National Agricultural Chemicals Association to wage a public relations campaign that emphasized the “constructive role played by chemicals in the field of environmental health.”[25] As one of the board’s officers stated in a general review of the MCA’s program, the “public relations program on environmental health… is currently concerned with the problems created for the industry by such books as Miss Rachel Carson’s ‘Silent Spring.'” They feared that the public would accept “the implication that the chemical industry has no sense of public responsibility and is motivated solely by a desire for profits.” The MCA set up an Ad Hoc Technical Committee, developed contacts with other trade associations concerned about increasing environmental consciousness, and produced a “large volume of informational material” for consumers, scientists, politicians, and educators.[27] An Ad Hoc Planning Committee on Environmental Health was established in April 1963 to coordinate the defensive and offensive measures to carry out the “proper responsibilities for chemical industry leadership in this increasingly significant area.”  The need to “get going” was essential “in light of mounting pressures for action, with the strong likelihood of a greatly accelerated program with or without industry cooperation.” pages 145-147

******

Not only were there differences of opinion regarding the extent and nature of the industry’s responsibility, but there also were different opinions about how to handle joint government-industry-sponsored research. Historically, industry had seen government as a partner that provided legitimacy and credibility to industry research conclusions. The debacle of the 1920s tetraethyl lead crisis was a case in point: the government had allowed the industry to control the nature of the research and its timetable. By the 1960s this sort of overt manipulation of the process was less easily achieved. When the MCA embarked on a number of joint research enterprises with the Public Health Service and other government agencies to assess the effect of air pollution on public health in the 1960s, it accepted that it could not gain complete control over the research. Although the MCA was unable to control the release of data resulting from such joint research efforts, it did reach an agreement with the government not to “include ‘interpretation of project findings'” in any such release. While the industry was not given the right of final approval, as it had been in the 1920s, it was still able to stifle adverse interpretations of joint government-industry research.

In 1969 the MCA did finally acknowledge that air pollution was a health problem and not merely a nuisance, but still the industry downplayed the dangers. The association agreed that some people already suffering from respiratory disease could be “adversely affected” by air pollution, but it argued that people in good health, “even though temporarily discomforted,” would quickly recover from acute exposure to chemical pollution “without residual damage.” The MCA posited that it was “unlikely” that air pollution was “a sole or principal cause of any disease entity” and that at worst it could accelerate the death of those previously ill, particularly among older people. But the MCA conceded no clear health risk from long-term exposure, no relationship between allergic asthma and air pollution, and no clear relationship in the United States between bronchitis and air pollution. The association agreed with a statement in a Health, Education, and Welfare Department report that said, “The association between long-term residence in polluted areas and chronic disease morbidity and mortality is somewhat conjectural.”  page 154

Posted in Air | Comments Off on Air Pollution in “Deceit and Denial: The Deadly Politics of Industrial Pollution”

Air pollution from wood stoves kills 2 million, affects health of 3 billion

13 Oct 2011.  Inefficient Developing World Stoves Contribute to 2 Million Deaths a Year. ScienceDaily.com

Smoke emitting stoves cause so much indoor air pollution that at least 2 million people die every year from them, and affects the health of another 3 billion people, almost half the world’s population. Resulting diseases include pneumonia, lung cancer, COPD, and any disease a cigarette smoker is likely to get (i.e. heart attack, stroke, cancer, etc). Women and children are the most affected since they spend the most time indoors.

Inefficient wood stoves lead to deforestation, desertification, more carbon dioxide, and environmental degradation (i.e. topsoil loss, soil fertility reduction, etc). Women are also raped on their usually long journeys to get wood.

Other suspected health risks:  cardiovascular disease, asthma, and tuberculosis.

Journal Reference: W. J. Martin, R. I. Glass, J. M. Balbus, F. S. Collins. A Major Environmental Cause of Death. Science, 2011; 334 (6053): 180 DOI: 10.1126/science.1213088

Related stories

Bilger, Burkhard. 21 Dec 2009. Hearth Surgery.  The Quest for a Stove that Can Save the World.  NewYorker.

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Natural Gas pros and cons

Natural gas is the ideal electricity generating source:

  • No sulfur or mercury like coal
  • No particulates like diesel fuels
  • Isn’t radioactive like uranium
  • It’s always “on” unlike intermittent sources such as wind and solar
  • Natural gas power plants are essential to the grid because they can be ramped up and throttled down quickly to keep electric load constant. The more renewable energy you add, the more natural gas peaking plants need to also be added to the grid to balance intermittent, unreliable, and unpredictable alternative sources like wind and solar. As of 2013, all energy storage systems except pumped hydro require more energy to build and maintain than the energy they can store and deliver.

1) Currently it’s used for about 25% of our energy (USA), mainly for electricity, heating, and cooking.

2) But we don’t have enough natural gas left to substitute for oil – natural gas production peaked about 1970 and has a much steeper depletion rate than oil. So even though President Obama recently said we have “100 years of natural gas”, it’s not clear that we can drill enough to keep up with the incredibly fast rate of depletion of the gas released by fracking.

Source: Colorado Geological Survey

3) We could import natural gas in liquefied form (LNG), but that requires billions of dollars of large processing plants and special ocean-going tankers. All of the proposed new LNG facilities have been prevented by communities worried about the explosive potential of the LNG facilities and ships.

4) Natural gas can’t be used by most vehicles, though there are Fed Ex and other vehicle fleets running on natural gas currently. It can take up to 8 hours to fill a tank up with gas – it needs to be forced in and pressurized to be dense enough to power a vehicle.

Posted in Energy, Natural Gas | Comments Off on Natural Gas pros and cons

Flow Rate Posts

Interview of Richard G. Miller by Steve Andrews in Peak Oil Review.  Feb 2014.

Q: You refer to the widely used phrase—“it’s not so much the size of the tank as it is the size of the tap.”  Care to comment on what the bottom line message is there?

Miller: Nobody should be misled by discussion of the size of global reserves.  What matters is the speed at which you can get them out, and that speed is limited by physics and engineering and money.  Very basic stuff.  If you really really wanted to get the existing reserves out faster, it would cost too much to buy.  So there is a rational size to the tap that you can have.

Q: You were quoted as saying we can’t grow the supply at the average rate of 1.5% per year at today’s prices.

Miller:  To grow by 1.5% per year, I don’t think it would be long before you got up into the $180 range.  And that’s a price that breaks economies.

Dr. Richard G. Miller, trained as a geologist, joined BP as a geochemist in 1985. He studied peak oil matters since 1991, when BP asked him the following year to devise a wholly new way to estimate global oil resources.  In 2000, he was tasked with creating an in-house projection of global future oil demand and supply to 2030.  The model he created was updated annually through 2008; then the effort was disbanded and he moved on to his present work consulting on peak oil. Most recently, Dr. Miller co-authored The Future of Oil Supply, which was published by The Royal Society (on-line December 2, 2013), in a thematic issue of Philosophical Transactions entirely devoted to future world oil supply; he also served as co-editor of that 12-article publication.

 

 

Jan 9, 2008  AN INTERVIEW WITH MATTHEW SIMMONS – The Casey Files – http://www.financialsense.com/editorials/casey/2008/0109.html

the IEA mid-term report claimed that oil demand will outstrip production causing a supply crunch starting in 2010 that will worsen until 2012.

We know that flow rates are what we measure to understand whether we’re at peak or not. In M. King Hubbert’s work, peak oil is calculated using the total resource base, but your point is that we may still have oil that we’re just not able to produce in an economic way.

MS : If it’s in the ground and you can barely get it out, it’s as irrelevant as me looking out over Penobscot Bay and saying “There’s a vast amount of hydrates about a thousand miles from here, a thousand feet underwater.” Well, so what? That’s not useful energy.

BC: If it takes more energy to dig up that last barrel of oil than it produces, then there’s no sense in trying.

MS: And another important concept is that if you’re lucky enough to find a highly pressurized field and it turns out to be condensate, which is sometimes called natural motor gasoline, you can literally bypass the refinery – because it’s been baked in the ground – and put it right in your car. It doesn’t run perfectly, but it runs.

With the heavy oil out of Canada, you have to expend energy to make it ooze out of the ground, and once it’s oozed out of the ground, you still have totally unusable oil.

You still have to go through a fairly hefty process of upgrading, and then finally diluting it with high-quality oil before it can flow. So one is total junk oil, and the other is the Rolls Royce of petroleum.

BC: The world needs to understand that we’ve been using up the Rolls Royces first because they’re more available. The harder-to-find and harder-to-refine stuff is what’s left. I think that’s misunderstood.

MS: Oh, it’s totally misunderstood. Sour, heavy oil is really not worth very much.

BC: We’re probably in more serious a situation than most people would realize, and it’s no better with natural gas. Switching gears for a moment, do you think the rise of LNG will be enough to keep up with declines in natural gas discovery and subsequently in natural gas production?

MS: Well, first of all, the problem with LNG is that if we try to develop a spot market out of LNG, the odds of it ending in bankruptcy are about 90%.

BC: Who goes bankrupt?

MS: All the players. The cost to produce and distribute LNG is so high that to make LNG work in any sort of financial reality, you would need a 25- or 30-year guaranteed supply. And then you can amortize it over 25 or 30 years. If you’re going on a spot supply, you’ve got to write it off over 10 years and then you’ll need $40 per million BTU to make the economics work. The other thing is that about 35% of the hydrocarbon value gets chewed up in the process of cryogenically freezing natural gas, transporting it, and then re-gassing it.

BC: In your opinion then, LNG is not an economically viable solution. We won’t do it.

MS: We shouldn’t do it. But it turns out that high-quality natural gas – sweet, high-quality natural gas – is just like sweet oil. It’s basically in decline.

BC: And therefore also harder to find, despite our original hope of about a decade ago. Clean energy was going to fix everything through natural gas for electricity and everything else.

MS: Yes, and using natural gas for electricity turned out to be an unbelievably stupid decision. Using electricity for heat was equally stupid. Natural gas should be refined to one use and one use only, and that’s creating instantaneous and high-efficiency heat.

BC: In one of your presentations, you have a very memorable clip of a ration book from World War II. Are we headed towards rationing and if so, between here and there, what are your estimates on what the price of energy might do, especially if we’re hit by any ugly political events?

MS: I try to stay agnostic about political events because they’re unpredictable. If you took a blackboard and filled it up with every political event that could impact the supply of energy, not a single one of them is positive. All political events are just unforeseen black swans.

MS: Our firm has daily recommendations, and I basically stay totally out of that. I tend to buy a stock and then hold it for five or ten years, unless I think that I’ve made a mistake. And I tend to think more about which sectors to avoid or be interested in to look at.

One of the things that really amazes me about the stock market and their love/hate relationship with energy is that of the current weighting of institutional investors in the market, the S&P weighting of energy is about 9%. Institutional ownership comprises about half of that. What’s interesting is that about two-thirds of the ownership is in the major oil companies, which is the one group that I would avoid like the plague. So the market is invested in the wrong area – the major oil companies.

BC: They haven’t been able to keep up their reserves.

MS: Yeah, and they can’t. Their decline rates are so high and they operate such old, mature basins that they can’t drill enough wells, and they don’t have places to drill wells, and they don’t have a sustainable strategy. So, in that respect, the oil service companies are the savior of all the problems.

BC: Specifically?

MS: The service industry is Schlumberger (NYSE: SLB ), Baker Hughes (NYSE: BHI ), Transocean (NYSE: RIG ) and others. There’s about 150 of them and, like in any sector, some of them are very poorly run companies, and some of them are outstandingly well run. What I really think is going to be the most active area is West Africa, or Libya, or that region. You can sort of name your scenario, and then you can pick the handful of service companies to give you good exposure.

In the E & P business, you get companies like Chesapeake (NYSE: CHK ), for instance, who have an unbelievably high talent, quality senior management, and they basically figured out a decade ago that the only way you grow production is by monopolizing drilling rigs and drilling like crazy. And so they’ve had double-digit production growth in their natural gas while almost every one of their peer group is in decline. I guess that’s one thing that I would observe in forty years of energy investment banking is that management matters.

==========================

Here’s another article on FLOW

http://www.energybulletin.net/39308.html

Published on 10 Jan 2008 by Energy Bulletin. Archived on 20 Jan 2008.

Peak oil: Why is it so difficult to explain/understand?

by Martin Payne

<snip>

OK, here is the key take-away:

Due to the physics of the flow of oil through rock, a field’s (or a country’s, or the world’s) maximum oil production RATE is not arbitrary but is dependent on the RESERVES:

SIZE (how big is the field in terms of area and thickness?) AGE (is the field newly discovered/produced, or is has it been producing for 40 years?) QUALITY (how well does the oil flow through the rock?) Examples:

All of the world’s largest oil fields – Ghawar, Cantarell, Burgan and Daquing – have excellent SIZE and excellent QUALITY … but their AGE is old! Hence, all of these (except possibly Ghawar) are in decline (their RATE is declining each day). The Athabasca tar sands, on the other hand, have excellent SIZE, they are essentially “new” in AGE (relatively little compared to the RESERVES has been produced so far), but they have the very poorest QUALITY – the oil is so thick it won’t flow and must be melted with heat, dissolved with solvents or mined. Most who take the “no Peak Oil” (or no Peak Oil until 2030 and then an “undulating plateau”) side of the debate speak of RESERVES. They don’t often address the difficult topic of trying to explain where the RATE will come from.

Recently this author attended a trade conference concerning “unconventional resources”. “Unconventional resources” is another way of saying “difficult to produce at a high rate, but prevalent in a given area”. For the most part, it’s what we’re left with, especially in the United States . So, a representative from IHS (who owns CERA) gave a talk and presented, among other things, maps showing trillions of barrels – worldwide – of bitumen, tar sands and heavy oil. Afterwards he smugly said, “WELL, I guess there are no supporters of PEAK OIL in this room!

With respect to oil production RATE (which is what Peak Oil is all about), he may as well have been showing a map of coal resources.

What he didn’t explain was the fact that Canada , despite having huge tar sands RESERVES of 188 billion barrels (or call it a trillion barrels, it really doesn’t matter), is currently producing oil from those tar sands at a RATE of about 1.1 million barrels per day. And this after a Herculean effort and tens of billions of dollars invested!

The Canadian tar sands producers have a roadmap for increasing the production RATE from those huge RESERVES to a total of … 3 million barrels per day, by 2015! That’s an increase of only another 1.9 million barrels per day, but over 7 years, and with additional tens of billions of dollars injected!

So, that huge amount of RESERVES is limited in RATE because it is of the poorest QUALITY.

To put this in perspective and show why it is important – why Peak Oil is important – take a look at the second largest field in the world, Cantarell, in Mexico . In early 2006, PEMEX announced that Cantarell Field was about to go into decline, for the first time ever. In fact, they projected that this field that produced 2 million barrels per day of Mexico ’s total 3.4 million barrels per day (end of 2005) would be down to between 1.5 and 0.5 million barrels per day by the end of 2008! Now, at the end of 2007, it is already down to 1.3 – 1.5 million barrel per day! So, if it finishes 2008 at 800,000 barrels per day, that is a loss of 1.2 million barrels per day, over just 2 years.

Compare this with the Canadian tar sands production increase of only 1.9 million barrels per day over 7 years – after a huge incremental effort. Factor in the depletion going on in most every field around the world – and you have an idea of the problem at hand, and a better understanding of Peak Oil. Among other things, huge RESERVES of poor QUALITY oil are not going to be able to provide the RATE of production necessary to stem the declines from the giant high QUALITY fields that are now old in AGE, much less continue to increase our total RATE.

In summary, Peak Oil is about RATE. And RATE is dependent on the SIZE, AGE and QUALITY of the RESERVES.

Posted in Energy, Oil | Comments Off on Flow Rate Posts

Depletion Rate Articles and Posts

Articles

2005. Matt Simmons. THE WORLD’S GIANT OILFIELDS How Many Exist? How Much Do They Produce? How Fast Are They Declining?

Posts

July 13, 2005.   “Powerswitch” Clive Smith

What seems to be happening…is that our new oil extraction technology, developed over the past 30 years, has allowed us to pull out more oil out of the ground, sooner (in newly developed fields, i.e. North Sea in the 70s) and prolong the peak or plateau (in new and older fields). Unfortunately we are now becoming more aware that the consequences of this: a much sharper decline….

Particularly in the fields like the North Sea, that were brought on line and
pumped at maximum as soon as possible, to meet maximum profits at the time
when this new technology in the oil industry was being used to its full potential.

Now 5/6 years after the peak in the UK sector, we are seeing 10% declines a
year in the North Sea… which is huge.

You have to understand, that the oil companies are not here to save the
world or to look after natural resources. They have shareholders and want to
maximize their profits. The Western Oil companies, pump out oil at the
fastest rate possible to generate revenue on their investment, using the
latest technologies available. It just so happens, that to do this, means a
much faster collapse in production after peak of these fields.

========================================

August 3, 2005  Oil depletions are not created equal

http://theoildrum.blogspot.com/2005/08/oil-depletions-are-not-created-equal.html

[snips throughout] Chris Skrebowski “on Understanding Depletion” used an average depletion rate of 5%, with other sources using 7% for a well in depletion. http://www.globalpublicmedia.com/articles/386 These are averages used until now to estimate how long fields will last, and how much new oil is needed to replace such losses in a market where supply exceeded demand. This average held up, where conventional methods of oil removal (primary recovery using vertical wells, then secondary and tertiary recovery) were used. However, there has been a recent change in the way oil was recovered, initially in the Middle East. Rather than get the oil out in a three-step process, as horizontal drilling came into favor, it was combined with the concurrent injection of water below the oil layer to maintain reservoir pressure and more rapidly recover the oil. (For a sectional view of such a field in late development see here , and for a greater discussion here). The method was very successful and has been adopted in other countries, and in the North Sea, as a way of getting more oil out faster. But here is the rub, because of the success in producing the oil, when the field depletes it drops at a much faster rate. The first place where this was seriously realized was in the Yibal field in Oman  (For more on Yibal see Green Car Congress http://www.greencarcongress.com/2004/04/the_shadow_of_y.html). The results for Oman have been  significant…    production levels – currently at 750,000 barrels per day – have actually fallen considerably in recent years, dropping 8.9 percent between 2002 and 2003 alone. And they are not alone, the production drop in the North Sea is now running over 11% a year. This is of concern because the projections have been used as the basis for British investment plans

=============================

Nov 17, 2005 1:30 pm    Post subject: Exxon, and the Implications of 8%

http://peakoil.com/modules.php?name=Forums&file=viewtopic&t=14953
Stuart Staniford:
As noted at the recent ASPO-USA conference, Andrew Gould, the CEO of big oil services firm Schlumberger, has been saying for a few months that:
…the industry is dealing with a phenomenon that is exaggerated by the lack of investment over the past 18 years. This phenomenon is the decline rate for the older reservoirs that form the backbone of the world’s oil production, both in and out of OPEC. An accurate average decline rate is hard to estimate, but an overall figure of 8% is not an unreasonable assumption. The maintenance required to slow the rate of decline, and increase the overall recovery, is a key element of the supply picture going forward.
He also notes what has been extensively discussed here at the oil drum (TOD):
Finally, the oil service industry is not in particularly good shape to meet the needs of a rapid worldwide ramp up in activity. A lot of the rig fleet, and much of the equipment are old. Very little spare capacity exists. This combination will compromise the service response, but the most disturbing shortage by far is the lack of specialized E&P professionals. A lot of skilled people have either been laid off, or have retired from the industry in the last 18 years. This shortage is as acute on the service side as it is on that of the operators. Training their replacements takes time, and there is already a great deal of evidence to suggest that the industry is fighting over the core of professionals that remain.
It’s also been noted by the EIA that Saudi fields are declining by 5%-12%, and that Iran’s fields are declining by 8%-13%. So OPEC countries appear to generally fit what Andrew Gould is talking about.

===========================

Nov 19, 2007. Stuart Staniford. Is the Decline of Base Production Accelerating?

===========================

Jan 21, 2006 A 5% decline is not as gradual as it may sound. I don’t think even most peak-oil aware people understand how catastrophic a 5% decline could be. A 5% decline would cut total production by 50% in 14 years. So if the decline begins in 2008 from a peak of 90 mbd, the world would only have 45 mbd in 2022.  Most of this 45 mbd would be from highly unstable areas, and a significant portion would be from low EROEI sources like oil sand. But let’s put those aside for a moment and just focus on the total number. 14 years ago, we were using about 65 mbd.  Today, we use 85 mbd. How do you think the world would look if we had peaked 14 years ago and today had to manage on 33 mbd instead of 85 mbd? IN order for “business to continue as usual” we need that extra 3% or so per year. So a 5% decline year is really an 8% shortfall per year.

Today, I got email from Kyle Swanson, a Professor of Mathematics and Atmospheric Sciences at the University of Wisconsin-Milwaukee. Kyle looked into what would happen if one did a MegaProjects style analysis on Exxon circa 2001. (Exxon being the most optimistic of the big oil companies – eg. the one not yet running ad campaigns asking the public for help in producing enough oil). Kyle’s conclusion:

Looking over Exxon’s annual reports for the past 5 years, I think that a reasonable case can be made that Exxon’s internal liquid decline rate is actually about 10%.

==============================

July 2006 Mr Samsam Bakhtiari testifying to the Australian congress

My WOCAP model has predicted that over the next 14 years present global production of 81 million barrels per day will decrease by roughly 32 per cent, down to around 55 million barrels per day by the year 2020.

Thus in the face of peak oil and its multiple consequences, which are bound to impact upon almost all aspects of our human standards of life, it seems imperative to get prepared to face all the inevitable shockwaves resulting from that. Preparation should be carried out on individual, familial, societal and national levels as soon as possible. Every preparative step taken today will prove far cheaper than any step taken tomorrow

The supergiant oilfields are all very great oilfields. Today you have 40 per cent of world production in these supergiants. Managing a supergiant is a very difficult procedure. The larger the supergiant, the more difficult it is. I will firstly state the case of Ghawar. Why? Because it is the largest oilfield in the world by far. At the beginning, it was estimated that it had in 1952—that is when it came on stream, which is some 54 years ago— some 70 billion barrels of recoverable oil. That was 54 years ago. In the meantime, much of that has been already recovered. The situation for Ghawar today is that you have two major problems. It is still producing, we think, between four and 4½ million barrels every single day, but in order to produce that much oil much needs to be done. I will show you two points, if you allow me. A whiteboard presentation was then given— Let us assume that this is the oilfield. What is happening today is that they are injecting eight million barrels of sea water every single day. What do they get out? This is very schematic. They get 12.5 million barrels of liquid out of the field and they split that into eight million barrels of water and 4.5 million barrels of oil. The water that they are injecting is increasing constantly.

So when they say that Ghawar crude is cheap, it is certainly not cheap any more, because you have to do all this enormous processing. You have these huge pipelines which come from the sea and an enormous compressor reinjecting that water under the oil column and pushing the column up. That is one point. There are problems. If you did not have problems you would not need to do all that.

They have done something else. Usually in all these supergiants you drill vertical wells and you take out the oil from the vertical wells by the pressure either of the gas or the water. That is how it is mostly in the four supergiants in Iran. But in the 1990s there was a new technology called horizontal wells. In Ghawar they thought that instead of relying on the vertical wells they would drill horizontal wells. Horizontal wells are both a blessing and a curse. Why?

The horizontal well is different. It comes down like this and then it goes horizontally for a few kilometres. The horizontal well is a blessing because you can get to the exact middle of the oil structure and so take out your oil more easily. But there is a very great danger with horizontal wells. They tell us that in Ghawar today there are 220, roughly, horizontal wells. The great danger of the horizontal well is that when the water reaches the well it is dead. So one day in the future at Ghawar, the water level will eventually reach the horizontal well.

Yes, it is happening but not on a large scale. When it happens on a large scale then Ghawar is going to collapse and you will have a cliff in the production of Ghawar. When you have a cliff there, the whole Saudi production system is going to fall apart. If that happens, we will start hearing bells ringing all over the place, and the price of oil is going to go through the roof.

It is extremely difficult to forecast precisely the price of oil in the future. I can see a range of $100 to $150 not very far into the future.

In my opinion, we could get there very easily. We are a couple of hurricanes or some geopolitical problems or a war away from having a worse problem than we have today. There you could go very easily, but after that where can this price go? I am studying that right now, and I have not reached a conclusion yet.

There must be some outer limit, and I am beginning to think that maybe the outer limit could be $300 per barrel. I am not so sure yet, because we are entering a brand new era in human history, an era we have not been prepared for at all. For the past six generations, we have been used to having cheap oil always available whenever we wanted it, more or less. Today, in 2006, all of this is beginning to change. We are entering an era in which we know nothing much, where we have a brand new set of rules. I am trying to find out what these new rules are. I have already reached two or three new rules. One of the new rules, in my opinion, is that there will be in the very near future nothing like business as usual. In my opinion, nothing is usual from now on for any of the countries involved. And the lower you are in the pile, the worse it is going to get.

When there is not enough oil, first you will have to raise its price and then you will have the problem of its availability. There may be some kind of worldwide rationing—I do not know. I am trying to look at the future but the future I am talking about, as you mentioned, might be beyond 2020. Maybe beyond 2020 we will have some reasonable idea. What will happen after that is very difficult to predict. I do not think the oil companies would like such a scenario at all. They will be forced—

Maybe they are saying this because they want to grow and buy smaller oil companies. They might say that they will buy at $30 because the price is going to fall to $25, so $30 is a very good price and would be a very good price to pay a small company. And there are other problems. Nobody likes the idea of peak oil. Firstly, you have the politicians. Naturally, a politician will never say that there is such a thing as peak oil. It is suicide to give bad news so a politician will never do that. He will always say, ‘The IEA says that we will be having 118 million barrels in 2030 so why worry?’

Secondly, you have the media. The media does not like peak oil. Why? There is no sponsorship for peak oil. The oil companies do not like peak oil because you should not say that your soup is cold; you should always say that it is very hot and very tasty, yes? So nobody wants to hear of this phenomenon of peak oil. I believe that some of the institutions—-I will not name them; they are here and maybe you can guess which ones they are-—are saying these things to act as a protection for some politicians who can say: ‘Because these institutions are saying these things, then we follow them. We do not follow Campbell and others.’

Senator JOYCE—It could also inhibit the development of a biorenewable fuel industry too. If they say there is a lot of alternative product around, then they do not need a biorenewable fuel industry.

Dr Samsam Bakhtiari—I do not believe that there are alternatives around. In my opinion there is no alternative to crude oil. There is nothing that can replace it, and this is the problem the world is facing today. There are no alternatives and I will try to explain very briefly why. In general economics we are taught a very basic rule. When the price goes up, demand comes down, and you have the marvellous figure of Professor Sam Wilson to explain exactly how this works. For crude oil this does not work at all. We were always taught that when the price doubles demand will come down by something. In the past two years the price has tripled and demand has not come down by anything. How far can we go? Nobody knows. I think that it will take three digits—at least over $110 or $120—for us to start seeing demand maybe coming down.

Why? Firstly, you have no way of preserving oil products easily—no way at all. We are all used to the car and we want to drive that car as far as we can possibly pay for it. Even at prices of $1.40 per litre for petrol you are beginning to have problems in the population economically, so what will it be like when the prices are much higher than that? $1.40 per litre is one of the cheapest prices in the Western world. It is just a little above fuel prices in California today so it is very cheap.

Not only do you not have preservation, you do not have any means of substitution, and I will come back to your previous question on alternatives. There is no alternative to crude oil. For the ones who believe that GTL is going to be an alternative, I am sorry to say that this is not a fact. Today you have only 85,000 barrels per day of GTL capacity in the world. I do not think you will ever have much more than that, and 85,000 is nothing. It is a drop of water in an ocean. The latest GTL plant has just been started in Qatar and I do not know how it is going to fare. It makes 34,000 barrels. It is an enormous plant. I think it cost one and a half billion dollars at least. It has two enormous reactors. If anything goes wrong with these reactors—my God, I do not know what is going to happen! So that is for GTL.

You have coal to liquid. The only coal to liquid plant today in the world is in Secunda in South Africa. It makes 150,000 barrels per day of liquids. I can tell you that because I have visited it, half by helicopter and half by walking around the facilities. It is a very messy affair and it is very inefficient energy wise. Now the Chinese are trying to make CTL—coal to liquid—of one million barrels per day capacity. I think it is going to cost them $10 billion at least. I cannot imagine how this site is going to be. I am waiting for them to finish, but it will probably take them quite a long time to get that one million barrels per day off the ground.

You mentioned ethanol, biodiesel and all that. This is not the future. This is not sustainable because in the future, if our predictions are correct, the No. 1 priority will not be transport and all that. The No. 1 priority is going to be food. And for food you will have to have top priority for fertiliser and insecticides and whatever you need to produce food only. So ethanol is a very, very wasteful system. And again, however much you want to make some ethanol, it will still be a drop of water in the ocean. Just let me tell you that for every litre of ethanol you will need between three and four litres of water to produce it. The best way to go for these types of fuel, and certainly the most efficient way, is sugarcane. That is what the Brazilians are doing today. With sugarcane you need one square kilometre of sugarcane to produce 3,800 barrels of ethanol per year. It is not very easy and it is very inefficient.

So I cannot see any of these alternatives coming up in the future in a big way. Now, certainly solar power will have a small role to play. Today it is still very expensive at between roughly $US 7,000 and $US 10,000 per megawatt. But it could certainly play a role, especially in Australia where you have quite a lot of sun and quite a lot of land to develop that. Wind also, in windy countries, could play a small role. But these roles will amount to two to three, or maybe four, per cent of oil consumption over the next 15 or 20 years, and not more. The orders of magnitude are not at all the same. You will make a small dent with each one of these but not much more than a dent. Replacing crude oil is not that easy.

CHAIR—I would like to follow up on this issue of price. The Australian Bureau of Agricultural and Resource Economics—ABARE—in their submission to us have done predictions based on future oil costs of $US30 per barrel. How realistic do you think that is?

Dr Samsam Bakhtiari—I believe you will never, ever see $US30 per barrel again unless you have a bird flu epidemic that wipes out at least millions of people or, as Senator Joyce said, something hits the planet and disrupts all calculations. Senator JOYCE—That takes out Europe. Dr Samsam Bakhtiari—I cannot foresee anything below even $US50 per barrel. That in my opinion would be very bad news, because if it goes back to, say, $US50 per barrel for some reason and for a short period of time, people will think: ‘Ah! So $US75 was just a spike and now we are back to the good old days and we can begin consuming again. Let’s go and buy that big SUV that we were looking at.’ You then lose two or three years at least. So $US30 in my opinion is absolutely impossible. You can quote me on that.

CHAIR—Thank you. My next question relates to the industry. BP when they made a presentation to the committee said that the prices now are basically the same proportionally as the spike in the 1970s. What is your opinion of those comments? Dr Samsam Bakhtiari—If you take into account inflation, it is the roughly same—it was $US75 to $US80 in those days. But those were spikes. Today it is a totally different problem. Today it is a transition into the unknown; then it was known. I am now personally of the opinion that if they had continued with the spikes we would have been much better off today. But they did not. After the two oil price shocks of 1973 and 1979 you had two price counter shocks in 1987 and 1998, when it dropped below $US10 per barrel. That was very bad news, because then demand started going up again. If all these reserves had been better controlled, maybe the transition would have been much easier. Just to remind you, in 1950, which is not that long ago, global consumption was only 10 million barrels per day. That was very easily controllable with the reserves we had. What is not easily controllable is the 81 million barrels per day that we have today.

Senator MILNE—In your opening presentation, you said that you thought that in 2006 we had begun transition 1, and that it would be a relatively gentle stage, and then we would go to extreme discomfort, presumably in transition 2. Can you outline to me the time frames you see for each of the transition stages, and how they will proceed? What will trigger moving from transition 1 to transition 2? When do you expect the real crisis to hit in that transitional phase?

Dr Samsam Bakhtiari—Certainly. From now on, from 2006 to 2020, making predictions is an extremely difficult process, because we do not know exactly what to expect of these transition periods. But I have decided for the time being to split the next 14 years into four transition periods, which I call transition 1, 2, 3 and 4. Every transition period has a steeper gradient and I do not know exactly how long each of these will take, because it depends on many factors. Nevertheless, I envisage now that transition 1 should take between three, four or five years, but I would have to revise this every three to four months.

We are here in 2006, which is, according to my model, the first year of transition 1.

I want to make an aside here — there is nothing worse for an oilfield than to be pushed. I believe that is what is happening to oilfields like Ghawar and Cantarell. They have been pushed. A better example is the Samotlor oilfield of Russia, which Tuesday, was a marvellous oilfield that the Soviets in the 1980s, when they badly needed money to have a system that would be a rival to the American Star Wars, destroyed, in my opinion. It was an extraordinary oilfield which could produce three million barrels a day. Today it is only producing 300,000 barrels a day. If they had managed that oilfield better, I think they would have had a much higher return. Pushing an oilfield is not very good for it. Letting an oilfield rest is the best thing you can do for it. The Iraqis’ oilfields had a marvellous time during the 1990s because they rested for a long time. I would be glad if such a thing could happen to the Iranian supergiants—if they could rest for some time. I think it would not be bad.

Between the beginning and the end of T1, you will have the two major scales tilting. At the end of T1 you will have a supply, and this supply is going to dictate the demand. Here you will have entities which will have the marginal demand. So it will be a totally different system form what we had at the beginning. It is this tilting of the scale that will in my opinion determine the end of T1. We have just begun shifting from one to the other.

In the time frame of T1, you might have some volatility in that it will start shifting to one side and then shifting back again to the demand side and going back and forth. So one has to be very careful. But in the end it will be the total shift that will in my opinion make the end of T1 clearer. About T2, T3 and T4, it is still very early. I am working on the next transition, but first we have to get this transition right.

One thing I might add about T1 is that I see not only that business as usual is not in the new rules but also that mega projects are not to be begun, because mega projects are long-term projects that take 10, 20, maybe 25 years. Because we do not know exactly where we are going at this stage, it is very dangerous to begin mega projects. But people are still doing this. The Europeans have begun a freight train line from Barcelona to Kiev, which is roughly 2,600 kilometres. The idea of having freight trains is a very good idea, but it is a bit late now. If you have rails you might make the service a bit better, but you should not construct it from scratch because it will take 20 years and cost at least 1/4 …GARBAGE CHARACTERS…ever be finished because the high oil prices will trigger rises in prices for all other commodities. You already see that steel is way above the usual prices. Copper has hit between $7,000 and $8,000, and it will go much higher than that. Nickel is $22,000. I think $22,000 is very cheap today; it will go much higher. All these commodities and all these metals will go very much higher, because it is the crude oil price which dictates the prices. Sugar is going up, orange juice is going up— everything is going up—because the price of crude oil is going up. It is the price of crude oil which more or less dictates all the other price hikes. In my opinion, you will have a correlation between all the price hikes in the future, and you can already see the first signs now.

Senator HUTCHINS—What do you see in transition phases 2, 3 and 4? Do you see any specific dates?

Dr Samsam Bakhtiari—No, not now, not yet. The gradients will get steeper, so the effects and the impacts will be greater. T1 is very benign; the gradient is very slow and you almost do not notice it. We will go from, maybe, 81 to 79½ over the next few years; it is not difficult. But T2 will be much more difficult—it is already—because it will start dropping considerably; then you will notice the drops every year, probably, and then it will get worse and worse. It is a process, fortunately, where the introduction is easier than the following phases. But it is still very early to start predicting what T2 will do. Firstly, we have to see what T1 is going to do, because already, in many aspects, T1 is difficult to predict, with all the events that could take place in the next three to four years.

Senator HUTCHINS—But you yourself have made a prediction that you do not see that the rail link between Barcelona and Kiev will be, to use my words, economically sustainable.

Dr Samsam Bakhtiari—No.

Senator HUTCHINS—What should governments do if you say that supply will determine demand? Dr Samsam Bakhtiari—I think that every society, every city and every government should do a certain number of things—many things; 1,001 things. There are not one or two solutions. There is no panacea. There is no silver bullet that you can just shoot to get rid of this. You have to start as early as possible and think about this type of future. I do not think the Europeans are ever going to make it. I do not think that Airbus A380 is a valuable aeroplane. It is a marvellous aeroplane, but it is arriving at the wrong time. They should have built it 20 years ago—and it would have been marvellous—when we were in the ascending curve of petroleum, not in the descending one, and not now that we have entered T1. I told them five years ago but naturally they did not want to listen at all, so they carried on. Now they have the problems and they are paying the penalties to all these companies already. It is still not commercial. I do not know why it will be commercial. I do not see a very bright future for that.

There is not too much innovation now; there is certainly a returning to commodities and exploration. I know of a company in Australia that invested very heavily and has just found a brand new copper mine. That is fabulous, because the copper they are going to extract in a few years is going to make enormous profits. If you put money into oil exploration—whether onshore or offshore—almost whatever you find is going to make money. These are types of investment. Or you could invest in agriculture but not ethanol or biodiesel.

Senator HUTCHINS—Yes, I was going to ask you about that—and I do not know if that is the point we are at, Madam Chair. You seem to be dismissive of alternative fuels.

Dr Samsam Bakhtiari—Yes. I do not think it is a very good idea. You can always try it on a small scale, but I think that energy wise it does not make much sense. Now we are in transition 1, I try to look at things from an energy point of view, not from an economic point of view. We do not know these days exactly what economics are. You have to think energetically and about the things you really need. For example, Western Australia—sorry is doing all the right things. They were kind enough to have been the very first to invite me, and I am very happy for them.

Western Australia does not have enough water and the water table is falling. It is a very big problem. They are putting in two desalination plants. They are obliged to put in two desalination plants. The desalination plant will need fuel—it will need gas—to run. In my opinion, they have no alternative so they are obliged to do this. When you are forced then you have to do it. I see that one problem in the future in Australia, much more important than the oil problem, is going to be water.

Your precipitation is going lower and lower. I heard that in June you had an average of only 14 millimetres of rain instead of the normal 108 millimetres. When I crossed from Perth to Sydney in the plane, over 3½ hours, what I saw was very dry. I think one of the problems is water. When you consider that every litre of ethanol or biodiesel will take between three and four litres of water then you start having a problem on the water side and on the energy side. I think you have to reconsider the economics of all of that in the near future.

Senator WEBBER—On that optimistic note—being a Western Australian—what do you consider the prospects for the future of gas as an alternative?

Dr Samsam Bakhtiari—Gas is the big issue, because we are not only having peak oil but, according to my prediction, in 2008 or 2009 we are also going to have global peak gas. Peak gas and peak oil are two totally different things because oil is a very special commodity. Gas is not the same because you cannot just put it in a ship. You either have to consume it locally, pipe it to some other country or put it in a LNG tanker. You have only those three alternatives.

Fortunately, Australia has an enormous amount of gas, and I believe this is going to become very handy because the peak for gas will be between 100 and 105 TCF global production in 2008-09. Because of this peak in gas, you will have enormous problems all over the world but firstly in the US. The price of gas is going to go sky high. Today, it is incredibly cheap. Gas in the US has a threshold price today of between $7 and $8 per million BTU. This is going to go much higher. Every year you will have to add $2 to $3 to that price. The US price is going to affect all the other prices, and it has already begun in South-East Asia. All that will be linked through the LNG price that you will have, and the price of LNG is going to go very high. I think that Russia does not have much gas anymore, although it is the largest producer in the world. I am very worried for the Europeans, and probably this winter you will see that the Europeans are going to have an enormous number of problems. If it is a harsh winter in Europe, you might have thousands of people dying. You had hundreds last year, but that was only the beginning. If this winter is harsh, you will have thousands dying because the Russians simply do not have enough gas to provide to Europe.

The Americans do not have enough gas. The Americans had the incredible chance to have the mildest winter last year in 100 years. If that had not happened, I do not know where the price of gas would be today. That was very lucky, and they now have enough reserves for the coming winter because all the storage depots are almost full. That is a positive point, but the Europeans do not have that kind of chance, so you will have lots of problems. The price of LNG is going to go sky high because everybody will want LNG—in America, Mexico and Canada, which are in full decline; in all the South-East Asian countries and especially in China; and even in Europe. If the Europeans cannot get the Russian gas, their only solution will be to get LNG from wherever they can.

I can tell you that, with gas prices in the US being around $6 per barrel, you have LNG spot sales today of $12 per barrel—and we are in a normal situation. So, wait for the panic and you will have prices of $25 or $30 per barrel, and maybe much more than that. For one week in March this year the British did not have enough gas and the price of gas shot up to $258 per barrel oil equivalent. At first I thought I had made a mistake of one decimal place, but then I realised it was not $25.8—it was $258. For one week they were paying that price for their gas. And we are in a very normal situation now; we are not at peak yet. So you can imagine how it is going to be when it is at peak, with the panic in all those countries because of the winter months. Just wait and see how it develops this winter in Europe.

Senator WEBBER—That is pretty dark.

Senator JOYCE—Going back to the biorenewable fuels issue, ethanol is being used in Brazil, and the terminal gate price of ethanol in Australia is around 80c a litre, so the reason that it is not being utilised is that the oil companies refuse to take it up. I have heard of a lot of what is going wrong but what we are really looking for is the solution; we are looking for the way out. Or is the world as we know it going to come to an end and this is just a prologue to the end? We need to find the solution. I do not say ethanol is a panacea but it is certainly a mitigating circumstance. We need to take it up. It could run conjointly with a whole range of issues. I have two questions. Firstly, if ethanol is not the answer, can you explain why it is being used so prolifically in places like Brazil, and why the United States, Europe and Asia are all taking it on board as a component of trying to deal with the impending oil crisis—or the oil crisis that is already here, apparently? Secondly, what is your solution? What is the noble horizon we need to head towards in order to maintain our current standards of living and economies?

Dr Samsam Bakhtiari—Allow me to take those questions one by one. First I will address the alternatives. Brazil can use ethanol as a fuel because of its enormous amount of sugarcane. There is also the idea of self-sufficiency. People like the Brazilians and the South Africans always have a complex about self-sufficiency. If the South Africans have gone after GTL and have pursued coal to liquids, it is because they want to be self-sufficient. It was not an economic decision; it was a political decision. I think the Brazilians are in somewhat the same situation. For them, because of the enormous amount of sugarcane they have, it does make some sense, but I really doubt that it makes a lot of sense in terms of energy. And I believe that, come the day there is conflict between producing ethanol or biodiesel and producing food, food is going to win because, first of all, you have to eat.

There is another danger in Brazil. They are destroying the Amazon rainforest at the rate of some 20,000 square kilometres per year and on that land they are planting food crops —in enormous amounts. I think that this will also be part of the future: when the other countries do not have enough food, they will go back to the Brazilians. Brazil has become one of the largest exporters of food in the world, whether it be soya beans, sugar, coffee or beef. It is almost anything. They have the surpluses. The Americans are also trying to get the ethanol. It makes a small dent for the time being, but not a very big one. I think that it is only a question of a few million gallons. I do not know what percentage you have, but it is not very much.

All of the others are trying. I heard there are a few million in Australia, but it will not make a very big difference, so I am not very keen on these types of bio alternatives. As for your second question about what should be done, there are many things. Everyone should study their own situation and see what can be done with the possibilities at hand, and not one thing, not two, but 10, 20 or 50. In my opinion, the first thing is to develop free public transportation, and that applies to everybody. Make it free from now. Even if it does not make very much economic sense now, it will in the future. Certainly, there is absolutely no doubt, as you go into transition 1, that free public transportation has to make sense. That is one of the things.

There are many other things that you can do. Plan; get new ideas from the grassroots. That is what Perth has been trying to do, to congregate 1,200 people from different walks of life in teams of eight, give them each a computer and have all of these ideas go back to the top for the selection of the ones they think are viable and useful. Have teams of elders. You have a fantastic man out there, Mr Brian Fleay. He predicted peak oil in 1995. It is extraordinary what he did. He was maybe the second person, after Dr Campbell, to have done that. And he did it almost from scratch. So people like this could have predicted that in 1995—in 1995 he wrote his book, so he must have predicted it in 1993 or 1994.

Or create steering committees through such people, and then get younger people to come in, very bright people, to start setting the priorities, because one day you will have to set priorities for the use of petrol. Have these in place soon, maybe in the next year or two. You will not need them in the next year or two, but have them in place already so that you are prepared. Get prepared for any eventuality. Have a special committee for that now. That is what I can see. I can advise that such things should be done this year or next year so that when or if the crisis really hits, then you have something to fall back on; you have a team that is already prepared and who has thought these problems through.

Thinking about these problems is very important, but there is something else. It is going to be very, very difficult to change the minds, to have the minds set on the new realities. For six generations we have been thinking one way—that is, that petrol is always there, petrol is not too expensive, oil products are not too expensive. We do not think about it. We do not think about fertilisers. We do not think about insecticides. Why? They are not that expensive, so it does not come into the day-to-day consideration. Petrol was always $1, not that much of a problem. We are used to that. The problem is going to be when it becomes $3 or $4 or $5. Then people will notice. Already at $1.40, some people are beginning to think about it, so when it becomes higher they have to change their minds, their way of thinking and their way of planning.

Dr Samsam Bakhtiari— [in reply to a question about shale]. There is a lot of shale—many thousands. There is an enormous amount of oil in there, but it is a very messy and difficult industry. In Canada, you have about 1.1 million barrels per day of synthetic crude oil produced, which is being exported mostly to the US, and which makes economic sense, especially at the prices of $74 to $75 per barrel. I think it costs them around $30 to $40 per barrel, so they are making some money. But I think it is limited, and I think the limits to that industry are, according to my prediction, roughly three million barrels per day. I cannot see Canada or the US together making more than three million barrels per day at the 2020 or 2025 horizon, investing enormous amounts of money. The shale oil industry is like the oil industry. You go to the best places first, naturally. And then, as you go along, it gets more difficult, it gets more expensive and it gets messier. I think you need roughly 2,000 tonnes of shale oil to make one barrel of synthetic crude oil. You can imagine, on an enormous scale, what that involves for the land and for everywhere else.

Already, at the level of 1.1 million barrels a day, the Canadian rivers are becoming so polluted as to have triggered alarm bells over Canada; the fish are dying and it will soon be impossible to clean up all the rivers. There are side problems for that as well. If one day we reach three million barrels per day I do not know what the situation will be there, but I do not think we can go further than three million; that is it.

There is also the heavy oil in Venezuela. Today there are 600,000 barrels of capacity. I do not think the Venezuelans can go beyond twice that amount, and with the government they have now they are stuck with their 600,000. I do not think anybody will be willing to invest in such expensive and difficult processes of exploitation. But even if the conditions were right I think they can go to 1.2. I really cannot see them going much further than that. So, yes, there is the potential but you have to transform the potential into production.

I forgot to tell you about the tar sands and the shale oil. All the heat you need for that comes from natural gas. You are spending 1½ million BTUs for every barrel you are going to produce; that makes a lot of gas. What the Americans are beginning to tell the Canadians is, ‘We’d rather have this gas than anything else.’ So you have other problems that arise in this exploitation—at most, three million for tar sands and shale and one million for the Orinoco heavy oil. That makes a total of four million over the next 20 or 25 years. It will not change a thing for people—it is a drop of water—in the 81 we are facing now.

Dr Samsam Bakhtiari— [when asked about oil company profits ] I think that oil companies are like all corporations: they want to make profits, and they want to make the highest return for their shareholders. In 2005, they set new records in every country for profits. I think that in 2006 they will have far higher returns and record profits of, maybe, $50 billion for Exxon or something like that. It will be roughly the same, maybe $40 billion, for BP and a bit less, maybe, for Shell. Their shares will be reevaluated all the time as the price of oil goes up—and, as I told you, it can only go up.

But they control part of the system. You have many players. You have the national oil companies now, like Saudi Aramco, the National Iranian Oil Company and the national oil companies of Kuwait or Qatar. The oil companies control part of the system and it seems that their share of oil production is beginning to decline as well. It is still quite substantial, but it is also beginning to decline. Naturally, I think they are in it for the profits, and they control wherever they are from the wellhead all the way down to the retail. I think they get profit centres all along the way, and they are making enormous profits.

Senator STERLE—I have two questions. If we were to take all the alternatives around the world—solar, hydro, gas, CTL, GTL and all those—how far off subsidising our thirst for oil would that be? Could we supply the world’s demands? Nowhere near it?

Dr Samsam Bakhtiari—Very, very little. In any scenario and in any field for the next, say, 20 years: very, very little. It is a drop of water. If you make the calculation of increasing even by 100 per cent every single year, it is still a drop of water in solar, in biodiesel, in anything.

Senator STERLE—So there really is no alternative at this stage?

Dr Samsam Bakhtiari—No.

Senator STERLE—It will bring in a lot of side issues of employment and revenue for governments—all sorts of things will pop up. If we are not fair dinkum in what we are leaving for the next generation—for our environment, our economies, our communities and our world— we really are in serious trouble. I pick up on that earlier comment you made about public transport and integrating public transport in trains and buses and whatever else there might be. It is not nirvana; it is a reality that we really are confronted with and we have to face.

Dr Samsam Bakhtiari—Yes. Provided that our models and our predictions are correct, this is exactly what you are going to face very soon. I do not want to be more negative, but I have started looking into T2, T3 and T4, and, my God, there are some things I started seeing down there that really send shudders up my spine. But I will spare you that today. Maybe that is for another time. But I entirely agree with your statement. It should be done if only to get prepared so that if things go the wrong way you have something to fall back on—that you have some organisation which you have already set up. As the crisis develops you develop this organisation and make it ever bigger and more powerful to take care of the crisis. There are companies which are employing 300,000 people in 140 countries who do not know a thing about peak oil. I do not know how they are going to react tomorrow. The Europeans do not want to believe this reality. Next year they are going to start—they have already started—dying from the cold. According to my statistics, at least 900 people in eastern European countries froze to death last year. This year it is going to be double or triple that amount. This is the reality already. When there is a real crisis, how are they going to react?

The most important point is that governments do not to cause people to panic. The worst reaction to this type of crisis will be panic. If governments are not prepared there will be panic. The more prepared governments and institutions are, the less panic you will have. Panics are very costly. I entirely agree with what you just said. There is still time to get prepared. We are not that much down the T1 slope. It will be a very slow development, so there is time.

Senator STERLE—Apart from what you saw in Perth with the free public transport around the CBD, are any other countries taking that lead?

Dr Samsam Bakhtiari—No, nobody. There might be a city or two, but I have not heard of any that have taken this drastic step already, and I have not seen such things at all. I can tell you that the future is to rails because rails are the most fuel efficient system. Would you like to see some figures on that? I can illustrate this for you on the whiteboard. This will give you an order of magnitude. At tonne kilometres per litre of fuel, aeroplanes are between two and three, cars are between 10 and 22, trucks are between 65 and 85 and trains are around 320. So on these very simple figures, I think you can see that the future is to trains, but not trains that you build now; trains that you had and that you are going to spend money on. I have heard that Sydney in 2006 is planning to spend half its budget on roads and other infrastructures and half on public transportation—it seems to be roughly fifty-fifty. I think that as soon as you change this percentage towards rail and public, fuel efficiency might begin to make some sense. I think you can see the future here.

CHAIR—It is not planes.

Dr Samsam Bakhtiari—Aeroplanes will be the first casualty in the system. They are already making losses. I do not know how they can carry on because the jet fuel is directly proportional to the increases in crude oil. It is not like petrol. Petrol is very much cheaper because you have hidden subsidies and you have the taxes naturally.

Senator MILNE—I have a strategic question about Iran’s contribution to global oil supply as well as to gas. What percentage of global reserves does Iran hold? If Iran were to stop supplying overnight for a geopolitical reason, what impact would that have on 81 million barrels used perday? In other words, T1 is assuming everything goes along smoothly. Let us assume there is a geopolitical crisis and Iran decides to stop supplying into that 81 million barrels a day. What impact would that have?

Dr Samsam Bakhtiari—At present I think that Iran is supplying roughly two million barrels of oil for exports. In the case of some geopolitical problem, you would have to take the 2 million out of the 81 million. That in itself would not be very harsh. Why? Because major consuming countries have their strategic petroleum reserves. They could start taking it out of their reserves. The latest data on the US SPR is that they have 688 million barrels in their reserves. I believe that the Japanese must have something around 120 million barrels. The Europeans, all together, have roughly the same amount as the Japanese. The Chinese are trying to build up a strategic reserve of roughly 40 million barrels, but they have not started yet. Maybe they hope for the price of crude oil to come a bit lower before they start. They could do that.

What would be impacting heavily on the price is the psychological impact of any geopolitical happening, whether in the Persian Gulf or in South-East Asia. Because the leeway in T1 is extremely small—as I have tried to mention to you—the slightest impact geopolitically will have enormous consequences. If you had in Saudi Arabia, for example, or anywhere else, some two million to three million barrels of spare capacity—that you usually had before—then people would not be so worried about this geopolitical impact. But you do not have spare capacity anymore. I do not believe the Saudis have any spare capacity today, although they say they  have a million or 1½ million barrels. They have no spare capacity. Nobody, in my  opinion—neither OPEC, nor non-OPEC, nor the Russians, nor the Saudis—has any spare  capacity. It would have an enormous impact. The price could go anywhere.

I will give you just one example of what we in NOIC did in 1975 after the first price shock, when the price went from roughly $2 per barrel to $11 per barrel. To find out what the real price was NOIC set up an auction, saying, ‘We have a few barrels and we are going to auction these barrels, so whoever is interested should give us a bid.’ Through the bids, we found out what the real price was. Some bids were up to $41. There were people who were willing, at $11 per barrel, to pay $41.

Then you have the problem that the national oil companies today in the Middle East and in OPEC are not what they were in the past. That is another problem. If there is a disruption, as long as the system is working, you have little problem. It just goes on and on. You see that in cases of earthquake or catastrophe. Once there is a catastrophe, it is very difficult to put it back to the way it was before. You see it taking 10, 12 or 15 years to bring it back. If you have geopolitical problems in the Middle East, it will be very difficult after the crisis has been fortunately somehow solved to put the system back to where it was before. For all these reasons—and because of the herd instinct and the panic that might follow—you could easily have prices doubling overnight. If somebody were smart enough to have an auction, you would see prices that even I could not imagine today.

================================

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JAN 21 2008. Randy Udall & Steve Andrews. ASPO Newsletter Commentary — CERA’s Depletion Study: The “Good News” About Running Up the Down Escalator

Last week the Wall Street Journal ran an article on Cambridge Energy Research Associates’ fascinating new study, “Finding the Critical Numbers: What Are the Real Decline Rates for Global Oil Production?”

Although CERA has put more spin on this report than Tiger Woods drops on a sand wedge, it’s still an intriguing look at a critical topic. Shell apparently thought so, too, and posted the article at http://royaldutchshellplc.com/2008/01/17/the-wall-street-journal-new-fields-may-offset-oil-drop/. (A three-page summary of the report is available at www.cera.com)

Any credible projection of future oil supplies must be based, CERA suggests, “on a comprehensive understanding of the production history of and behavior of existing fields…In other words, how much oil supply will come from currently producing fields ten years from now?” CERA looked at 811 fields, half large, half small, in its proprietary data base, and concluded that the global decline rate is 4.5% per year. Many in the peak oil community think this number is too low by half—Schlumberger CEO Andrew Gould used 8% in a corporate newsletter last spring–but let’s take it at face value for a moment.
Depletion never sleeps. Consider the enormous implications of a 4.5% decline rate. If you start with 85 million barrels a day in 2007, but lose 4.5% each year, by 2017 you’ve lost 31 mbd. That’s the equivalent of losing the world’s four largest oil producers: Saudi Arabia, Russia, the USA and Iran. By 2030, you’ve lost 55 mbd, or as much as all the non-Opec nations now provide. Remarkably, CERA finds this to be “good news.”

“Some of the gloomy, pessimistic ‘peak oil’ views…result from an assumption of high decline rates,” said Peter Jackson, lead author of the CERA report. “This new analysis provides the basis for more confidence about the future availability of oil.”

To his credit, Wall Street Journal reporter Neil King observed that, “The study strikes a more optimistic tone than do many heavy hitters in the industry.” Tom Petrie, a Merrill Lynch vice president with a distinguished career in energy banking, told King, “However you spin it, a 4.5% decline rate is a very sobering fact. People are running hard to find new sources of oil, and that’s just to keep even. When was the last time we discovered another Iran?”

“One Iran” is what we are now losing to depletion each year, and Ben Bernanke can’t do anything about it. Forget resource nationalism. If Hugo Chavez turned into George Washington tomorrow, we would still have a serious depletion problem on our hands.
Of CERA’s 811 fields, only half have entered their decline; the rest are new fields that are still ramping up or on their maximum production plateau. In other words, what CERA calls its “aggregate global production decline” is an average of new deepwater fields, young pups, mature giants, and sclerotic geriatrics.

When CERA looks just at fields that have passed peak, its results resemble those so often quoted on peak oil web sites. To wit, of 308 Non-OPEC “post-plateau” fields, the average decline is 8%. Of 209 post plateau offshore fields, the average decline rate is 10%; 29 deepwater fields are declining at 18%.

The Rule of 72 tells us that an 18% decline costs you half your output every four years. A decline that steep is like a gunshot wound to the abdomen: you are bleeding out.
But fear not, says CERA. Yes, 23 Norwegian fields are declining at 13%, but the good news is that “four of the seven largest producing countries (China, Mexico, Russia, and Saudi Arabia) are below 10 percent….There is no looming crisis linked to rapid depletion of the global reserves base.” In other words, get a life, you doomers!

As we said, there’s more spin on this report than there is kudzu in Georgia. Although the 811 fields aren’t identified by name, the data set is said to be a “representative sample” including two-thirds of current global production, and about an equal percentage of remaining conventional reserves. CERA found that a “surprising 63% of remaining reserves are associated with fields that are still either in the buildup period or on plateau. (“Plateau” is defined as any production level that is 80% of the maximum production level.) This bears some consideration: is global oil production “younger” than some of us tend to think?

OPEC fields “generally decline at a slower rate than non-OPEC fields, possibly in relation to basic geological differences, the relative size of OPEC fields, their locations, and perhaps production constraints set by the organization,“ says CERA. (Although a 2005 CERA report showed Ghawar in decline, a sidebar in the current study proclaims it to be in fine fettle.)

The CERA study confirmed Matt Simmons’ and others’ view that the old giant fields are critical both to the present and the future. “Because large fields (>300 million barrels of original reserves) represent 86% of the production in the study, their lower decline rate and higher production level through extended decline periods is likely to make a major contribution to overall future liquids production capacity,” says CERA.

Futhermore, an “improved understanding of giant fields’ complexities and reservoir models…has arrested decline and, in many cases, allowed production to increase significantly.” Specific exemplars of this “fountain of youth” phenomenon are not identified, but they would not include Prudhoe Bay. (Actually, CERA’s data set only includes 6 onshore fields in North America, which seems odd since 75% of the world’s wells have been drilled here.)

More worrisome, perhaps, is that we aren’t finding many giants anymore, and that small fields peak quickly and expire at 22 years. Almost all non-OPEC fields would fall into CERA’s small category. This may be why CERA’s website summary of the report contains an illustration showing non-OPEC production peaking in 2012, or thereabouts. After that, all future supply increases must come from OPEC.

But not to worry. CERA concludes its report with a double dose of its patented petroleum Prozac, arguing that its results “reinforce our model showing that liquids capacity could climb to 112 million barrels a day by 2017…”

Betting on depletion is like betting on rust. Your authors here, Udall and Andrews, on behalf of ASPO-USA, are willing to wager CERA $10,000 that petroleum liquids capacity won’t climb to 112 million barrels a day by 2017. That wager, in our view, is a sure thing.

Randy Udall is an energy analyst and writer based in Carbondale (CO). Steve Andrews is a Colorado-based energy consultant. They are two of the five co-founders of ASPO-USA.

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17 Jan 2008. Neil King Jr.  New Fields may offset oil drop. Wall Street Journal.

summary of article:

Output from the world’s existing oil fields is declining at a rate of about 4.5% annually according to a Cambridge Energy Research Associates study.

They say this supports a rosy view of the future because it means that new projects will make up for the decline.

The study was based on 811 fields from around the world and rejects the peak oil point of view.  The conclusion states that there is no impending short-term peak in global oil production.

Oil field depletion rates are important and much debated.  The decline rates are being closely watched because the world is heavily dependent on individual fields that have been producing for decades.  Some of these huge fields, i.e. North Sea, Alaska, and the Gulf of Mexico, are declining at rates approaching 18% a year.

CERA says that less than half of the fields were in decline and that decline rates overall aren’t accelerating as some insist.

Andrew Gould, the CEO of Schlumberger says it’s more like 8% per year and growing.

Christophe de Margerie, CEO of Total SA, said “many existing oil fields are being depleted at rates that will do them lasting harm”.

Energy banker Matt Simmons says that very few in the industry believe that the global oil-decline rate is below 5% a year.

Thomas Petrie says that “however you spin it, a 4.5% decline rate is a very sobering fact”.

=============================

Jan 21 2008 I find it amusing that CERA comes out with a statement that the average oil field decline rate is 4.5%, and that the “megaprojects” will provide us with the added capacity to keep peak at bay for a long time to come. Just in November, both Khebab and Staniford on the Oil Drum came to the same conclusion about decline rates, but from two very different analytical approaches. They also found that decline rates were accelerating, but CERA doesn’t address that. That 41% of CERA’s fields under study were in decline must mean that the average decline rate they found for fields in decline must be much higher than 4.5%, which is disconcerting enough. From my experience in the industry, expecting every megaproject to come onstream at their peak rate in the time they are planned is rather hopeful, but frankly, I think the financial and banking crisis we are just seeing the beginnings of will probably be more effective than the megaprojects to extend supply a few more years.

=================================

3 Mar 2008 Oil & Gas Journal.Volume 106 Issue 9 Mar 03, 2008  by Kjell Aleklett
President, ASPO   Professor, Uppsala University, Uppsala Hydrocarbon Depletion Study

Group, Uppsala, Sweden
I understand that the Association for the Study of Peak Oil & Gas (ASPO) will not always be invited to speak at CERA Week (Cambridge Energy Research Associates annual conference in Houston), but if I had been invited I could have discussed the CERA 2006 forecast of future oil production (Journal of Petroleum Technology, February 2007).

CERA’s prediction is divided into conventional and unconventional oil, and if we sum the
CERA-predicted crude oil consumption to 2070 we get a number in the region of 2,000
billion bbl, twice as much as has been consumed to date. Production of 70 million b/d in
2070 requires reserves of the order of 500 billion bbl, and current crude oil reserves
are 800 billion bbl. Adding the numbers, 500 billion bbl plus 2,000 billion bbl, less
800 billion bbl, we arrive at a figure of 1,700 billion bbl. This is the amount of oil
that must be found and developed during the next 62 years, or 27 billion bbl/year.
For these figures to work the oil industry needs to get out and start looking for oil
like crazy.

If we just look 3 years ahead to the end of 2010, CERA perceives that crude oil
production is set to be 80.8 million b/d. This is an increase of 8 million b/d when
compared with today’s production. In 2002 ExxonMobil presented a fantastic graph in
their magazine The Lamp. They showed that the decline in existing oil and gas fields was Expected to be 4-6%/year for the next 20 years.

Last year CERA presented a detailed study of the decline in existing oil fields based on
a study of 811 fields, and that gave an average decline rate 4.5%/year. We at Uppsala
Hydrocarbon Depletion Study Group have made a study of decline in giant oil fields using data from 333 fields, representing 60% of global oil production, and CERA’s stated decline for large fields is of the same order as our figure for decline. For argument’s sake, let us use the CERA number for the rest of our discussion.

CERA’s decline rate for 2008, 2009, and 2010 means that the industry needs to fill a gap
of 10 million b/d by the end of 2010. If we then add the increase in production of 8
million b/d that CERA predicts, we find that the world requires new production in the
order of 18 million b/d in just 3 years. Is this really possible?

First we have to turn to Saudi Arabia and Saudi Aramco as they have the largest
reserves. According to a seminar given in Washington in 2004, they have 700 billion bbl
in place, and the cumulative production for Saudi Arabia to date is 119 billion bbl. Out
of the reported 260 billion bbl of reserves they reported in 2004, they labeled 131
billion bbl as developed, and the depletion rate of developed production was 2.7%/year.
A realistic assumption is that the depletion rate should be no higher the 3% in 2010.
The fact that Aramco claims to have 700 billion bbl in ground, have produced 119 billion
bbl, and have 260 billion bbl in reserves gives a recovery factor of 54%.

Saudi Aramco Chief Executive Officer Abdallah Jum’ah was invited to CERA 2008 and said
that new investment is expected to boost the company’s oil production capacity to 12
million b/d by the end of 2009. With a depletion factor of 3%, this means that Aramco
must increase their developed reserves from 131 billion bbl in 2004 to 146 billion bbl
in 2010. In 1998 Aramco added the Shaybah field and 500,000 b/d. Aramco’s promises
amount to new production equal to four Shaybahs and still require compensation for the
decline of other fields.

Adding the new Saudi oil to the expected increase of production in new deepwater
projects of around 4 million b/d plus other new projects providing an additional 2
million b/d, we end up with a figure of 8 million b/d of the 18 million b/d needed. We
still have to find 10 million b/d to fill the gap in the CERA forecast.

If invited I would have covered many other interesting aspects of future oil production,
but now I would just like to agree with the invited speaker John B. Hess, chairman and
chief executive of Hess Corp.:

“Given the long lead times of at least 5-10 years from discovery to production, an oil
crisis is coming and sooner than most people think. Unfortunately, we are behaving in
ways that suggest we do not know there is a serious problem (OGJ Online, Feb. 15,
2008).”

==================================
June 5th, 2008. David Galland. What the Export Land Model Means for Energy Prices By

David Galland,

http://www.321energy.com/editorials/casey/casey060508.html

DECLINE RATE  ELM Jeffery Brown model

2005        2%
2006     3%
2007     5%
2008     7%  true: aspo newsletter, June 12, 2008:
So far in 2008 net US imports are down by 7.5 percent over 2007.
2009    10%
2010    15%
2011    20%
2012    and so on!

This is an accelerating decline rate!  He predicts the 14% of oil we get from Mexico

will completely stop by 2014. Basically, oil prices likely to double every year (hell,

they doubled going from 5% to 7% decline)

So, what’s the investment angle? Paradoxically, the larger energy companies are probably

a bad bet, because they are forced to replace their depleting reserves, which is getting

harder and more expensive to do with each passing day.  The good news is that there are

no shortage of high quality energy-related investments available… in coal, heavy oil,

LNG, photovoltaics, natural gas consolidators, “run of river” hydroelectric, uranium and

small to mid-cap oil companies with the potential for significant near-term gains in

reserves or production.

In my interview, I also asked Jeffrey to share his thoughts on the situation globally.

Here’s his response.

“Global production peaked in 2005, and we’re now into the third year of decline. And the

critical point, to keep in mind, is our model and case histories show that the decline

rate accelerates, year by year. Using the Lower 48 in the United States as an example,

you can see the annual declines going 2%, 3%, 5%, 7%, 10%, 15%, 20, on and on. So it’s

an accelerating decline rate.

Underscoring Brown’s concerns;

* On April 15, 2008 the Russians, the world’s second largest oil exporter announced

that their oil production appears to have peaked, with production in the first quarter

of this year declining for the first time in a decade. If they have indeed peaked then,

based on the ELM, the world could lose Russia’s current ~7 million barrels a day in

exports within 6 to 9 years.

* Echoing the baseline premise of the ELM, Herman Franssen, president of

International Energy Associates, projects that Iran, the world’s fifth largest exporter,

may consume an amount equal to their exports by 2015. A prominent oil analyst, the late

Dr. Bakhtiari, estimated that Iran is either at, or near peak.

* Most concerning, this April Saudi Arabia’s King Abdullah announced they were not

going to raise oil production above 12.5 million barrels a day. Commenting on the news,

Tom Petrie, vice president of Merrill Lynch said…

“King Abdullah’s quote speaks to the fast-emerging reality of what I call

‘practical peak oil.’ The Saudis and other exporters are placing a new emphasis on

elongating the petroleum exploitation and depletion cycle. This stems from a growing

awareness of the challenges of conventional resource maturity, as well as rising

resource nationalism. This is likely to result in an earlier occurrence of global peak

oil output than many consumers yet recognize.”

Summing it up, Brown told me that “The reality is that this thing is coming so much

faster and so much harder than even most pessimists were expecting.”

===================================

Nov 18, 2008. Matt Simmons. ASPO newsletter

[snip]

IEA big announcement critique
During 2007, the 20 largest oilfields produced 19.2 mbpd of crude or 27% of global production. On average these fields were found 50 years ago and are still the anchor of supply. Of these fields 4 are at peak; 2 fields are in decline phase 1, meaning they are at plateau (producing more than 85% of peak); 9 are in decline phase 2 ( producing between 85% and 50% of peak); and 5 are in decline phase 3 ( producing less than 50% of peak). As we see below, decline rates accelerate as you move from one decline phase to the next.

110 fields produce 50% of global supply while 70,000 fields produce the remaining 50%.
One of the report’s conclusions is that decline rates increase as the fields get smaller. The study is based on 800 large fields. One question is if the adjustment of decline rates to include the 69,200 fields is aggressive enough or whether on a global basis the real decline rate is larger?

Decline rates

Another important finding is the high level of natural and observed decline. The decline rates referred to match fairly well with what Schlumberger has been known to convey, although they always say they have been told by others. These decline rates are also a far cry from what a certain consultancy firm has reported. The surprising thing is that they have both used the IHS database and come up with starkly contrasting conclusions.
The following is a table of observed decline rates based on size of fields in decline phase 1 and 2.

As we fill up the funnel with ever-more new and small fields to compensate for the decline from the old Giants, we can see how it will accelerate global decline rates.
The global natural decline rate for post-peak fields is 9%. This figure is expected to increase to 10.5% in 2030. Based on the tables above one has to ask oneself if this is being too cautious.

Two other interesting data points in the report: the IEA’s own analysis gives a world-wide natural decline rate growing from 8.7% in 2003 to 9.7% in 2007, in only 4 years. Similar findings were referred to in a Goldman Sachs study, where the natural decline rate for 15 major oil companies rose from 10.6% to 13% in the space of 5 years (2001 to 2006). Given that 2030 is still 22 years off, it looks unlikely that natural decline rates will only grow by 1.5% in this time span.

Supply growth other than crude oil

In addition to 19 mbpd from fields not yet found the IEA relies on global NGL production to rise by almost 9mbpd, or almost 100%. This will require a massive growth in gas production. A large percentage of the gas reserves are also tied to oil in the form of associated gas. If that oil is not produced in larger volumes and at higher gas-to-oil ratios, that NGL will also not materialize. In offshore fields it is often difficult to produce the gas so that gives you more stranded gas. In recent years, the IEA has also shown the same tendency to overstate next year’s production of Opec LNG (in their July forecast for next year). This has become a pattern. The 9mbpd growth is a huge number and a shortfall could be very damaging to global supply.

Unconventional oil

In the report IEA assumes that oil from tar sands will grow with 4.7 mbpd, GTL (gas to liquids) with 0, 7 mbpd and CTL (Coal to liquids) 0.7 mbpd. The report is also very focused on carbon emissions and climate change. Yet a very material portion of net growth in the period comes from an extraction process which releases huge volumes of CO2, in addition to consuming large volumes of NG as process energy. This gives a very unfavorable net energy ratio, as well as all the other environmental challenges tar sands represent (e.g., water use). To simply assume all these political challenges will be solved in order to expand oil supply seems optimistic.

As to GTL and CTL they are not very significant by 2030 (1.4 mbpd) but clearly represent huge CO2 challenges and net-energy considerations which may stop or slow these efforts.

Future supply

On page 267 one will find a table showing expected non-Opec conventional production in 2030. The US will only loose 400.000 bpd in production over the next 22 years even though the US lost 800.000 bpd over the last 7 years. Canada will only lose 200.000 bpd and Mexico will only loose 500.000 bpd from 3.5 mbpd in 2007 in spite of Cantarell being in a tail spin. China’s super-giant Daquing is now in decline but still that country will only loose 200.000 bpd. It is of course impossible to claim that “one knows better” than all the experts who have produced this model, but a decline in production of such a small magnitude does look quite optimistic.

As far as OPEC is concerned there must be an assumption of political peace built into the model. Iran has not been able to grow their production for years in spite of all efforts. Now they will grow to 5.4 mbpd by 2030. Obviously Mr. Ahmadinejad or anybody like him will no longer be in office. Iraq will reach 6.4 mbpd and Kuwait 3.3 mbpd in spite of doubtful reserves. Nigeria will grow from 2.3 mbpd to 3.7 mbpd. A deal will apparently have been made with insurgents in the delta. And, most importantly, no other political problems affecting oil production will arise by 2030. Political turmoil is hard to predict, but we must assume something bad will happen which makes these figures less likely.

Saudi Arabia is being assumed to produce 15.7 mbpd although they have never promised to do so. Sadad al Husseini, former head of E&P in Saudi Aramco, has said the Saudis should not produce more than 12 mbpd if they want to avoid damaging their reservoirs. He has also said that Middle East OPEC will never produce more than 25 mbpd. Yet IEA projects that these countries will produce 37.1 mbpd by 2030. There is clearly a downside risk of some magnitude.

Summary

This report has been criticized by some of the peak oilers for not being alarmistic enough in its conclusions. In a way that is unfair. You cannot expect the IEA to shout “Fire in the theater!” They lay out the facts in Chapters 10 and 11. There you can see the assumptions being used and you can make up an educated assessment as to whether they are all realistic.

Are all the various data for decline rates indicating that they will accelerate with more than 1.5% in 22 years? They probably will.

Is it realistic to assume that all geopolitical tensions today affecting oil production will be solved and no new conflicts will arise by 2030? Clearly not.

Is it realistic that we will bring on 19 mbpd of production from fields we have not yet found ? Probably not. Is the USGS study realistic? Definitely not.

Is it realistic that non-Opec production will stay more or less flat and all the unconventional will roll in place unopposed in this world of climate change ? Probably not.

In short, the IEA has given us the tools to analyze and draw our own conclusions. Knowing the driving forces behind this report, this is only the beginning of their valuable work. On the shoulders of their report it is up to others, like us, to shout: “Fire in the theater!”

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